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MEASURING INSTRUMENTS

Export General Catalogue

sauermanngroup.com

For over 40 years, the Sauermann Group has designed, manufac- tured and sold products and services dedicated to industrial and HVACR markets. The Group specifically focuses on the detection, measurement and control of indoor air quality (IAQ).

LOW NOISE LEVEL Condensate management solution: Safe and efficient condensate manage-

HIGH RELIABILITYHIGH ment in air quality systems can be challenging. The design of Sauermann pumps
PERFORMANCE is carefully engineered. Patented technologies ensure that our pumps run quietly and with unmatched reliability.

Measuring instruments: Sauermann is specialized in the measurement of many

HIGH PRECISION

indoor air parameters, designed to monitor buildings’ aeraulic systems (air condi-

OUTSTANDING RELIABILIT

tioning and heating), cold chain protection and thermal machines’ combustion

NUMEROUS APPLICATIONS

efficiency. Thanks to its extensive test laboratories and in-house research and development, Sauermann’s measuring instruments ensure reliability and accuracy for all HVAC operators.

Content

Airflow meter . . . . . . . . . . . . . . . . . . 03 HVAC portable instruments . . . . . . . 04 Thermometers . . . . . . . . . . . . . . . . . 08 Combustion gas analysers . . . . . . . . 10 Indoor air quality . . . . . . . . . . . . . . . 14
Data loggers Kistock . . . . . . . . . . . . 18 Wireless data loggers . . . . . . . . . . . 20 Sensors / Transmitters . . . . . . . . . . . . 22

Data acquisition system . . . . . . . . . . 26 Calibration benches . . . . . . . . . . . . . 27
Temperature probes . . . . . . . . . . . . . 28 Liquid column manometers . . . . . . . 29 Research and development . . . . . . . 29 Services. . . . . . . . . . . . . . . . . . . . . . . 30

2

Airflow meter

Airflow / Air velocity / Pressure

Airflow meter

DBM 620 Compatible with all air vent types.

SWIRL

airvent

  • • Interchageable hoods
  • • From 35 to 4,250 m3/h (11 to

1,181 L/s)
• Quick and easy mounting

• Supplied with 610x610 mm hood and transport case
• Simultaneous display of airflow and temperature
• Automatic airflow direction
(extraction or air blast)

Switch between hoods quickly and easily

Patented folding frame & space-saving hoods storage

Transport case: compact storage system
Easily edit your reports with the SmartKap application

Remote velocity grid

Designed for air velocity measurements on any type of large ceiling vent or diffuser.

• Average air velocity from 24 points • Telescopic and articulated pole: maximum length 2.05 m, 0 to 90°, positioning strut
4 optional hoods are available:

• 2.36 x 2.36 ft (720 x 720 mm) • 2.36 x 4.33 ft (720 x 1,320 mm) • 1.38 x 4.99 ft (420 x 1,520 mm) • 3.35 x 3.35 ft (1,020 x 1,020 mm)
• Backpack

3

INDOOR AIR QUALITY

HVAC Portable

Instruments

Temperature / Humidity / Pressure / Air velocity / Airflow Air quality / Gas detection / Light / Tachometry

Class 50, 110, 210 & 310

The range of portable devices is ideal for technicians responsible for maintaining heating, ventilation, and cooling installations.

• Wireless and Smart+ probes • Graphical wide screen • Data recording • Ergonomic design

Graphical display
Magnetic protective cover

IP54 housing
Interchangeable probes & modules

Datalogger

Configure / Measure / Data processing

• Configuration of instruments • Instruments management • Reports creation
• Insert commands • Insert legends and statistics • Add mathematical functions
• Customized channels

4

The + of class 210 & 310

Expandable memory (AMI 310)

Internal memory of 1,000 datasets of 20,000 measuring points. Built-in location for a micro-SD memory card.

Designed for the field

An overmoulding made of elastomere protects the instrument, guarantees shockproofing.

Nonstop measurements

This new generation of instruments has an interchangeable and rechargeable Li-ion battery.

Interchangeable probes

The new probes utilise a mini-Din connecting cable which is compatible with all probes.

Interchangeable modules

  • 1. Climatic conditions
  • 3. Pressure

  • 2. Thermocouple (4 channels)
  • 4. U Coefficient

3
1

2
4

  • Air quality
  • Manometers

MP 50 / 51 / 55 / 110 / 111 112 / 115 / 120 / 130 / 210

Anemometers

LV 50 / 110 / 111 / 117 / 130 VT 50 / 110 / 115 / 210
CO 50 / 110 AQ 110 / HQ 210

• CO: 0 to 500 ppm • CO2: 0 to 5,000 ppm • -40 to +180 °C • 3 to 98 %RH
• Differential pressure
• Hotwire and telescopic hotwire • 0.15 to 30 m/s

•

500 Pa to 2,000 mbar
• Air velocity with Pitot tube • 3 to 85 m/s
• Vane probes: Ø14, 70, 100 mm • 0.3 to 35 m/s

  • • Airflow: 0 to 99,999 m3/h
  • • 0 to 5 m/s
  • • Atmospheric pressure

• 800 to 1,100 hPa

5

As per following standards:

Class 50, 110 & 210

NF EN 12464-1 / NF EN 12464-2 NF EN 12193

Hygrometers

HD 50 / 110 HQ 210

Luxmeters

LX 50 / 100 / 200

Tachometers

CT 50 / 110
• 3 to 98 %RH

Illuminance measurement

• Optical: 60 to 60,000 rpm
• -40 to +180 °C • -50 to +80 °Ctd • CO: 0 to 500 ppm • CO2: 0 to 5,000 ppm

••

0.1 to 200,000 lux 0.01 to 18,585 fc
• Contact: 30 to 3,000 rpm
• Operating software

Accessories

  • Operating software
  • ABS transport case
  • Backpack

Adjustable wedge for telescopic vane and hotwire probes

  • Measuring cones
  • Debimo blades
  • Protective housing
  • Pitot tubes

6

Multi-function

Class 310

AMI 310

AMI 310 is a multi-probe instrument which can measure up to 6 parameters simultaneously.

Wireless probes
Data processing software

Interchangeable probes & modules
Micro-SD card

Colour wide screen
Graphical display

  • • Pressure:
  • • CO: 0 to 500 ppm
  • • Dew-point: -50 to +100 °Ctd

500 Pa / 2,500 Pa / 10,000 Pa 500 mbar / 2,000 mbar
• Thermocouple: -200 to +1,760 °C • Pt100: -200 to +600 °C
• Wet temperature: -50 to +100 °Ctw • Enthalpy: 0 to 10,000 kJ/kg • Combination ratio: 0 to 10,000 g/kg • Calculation of U coefficient and WBGT index
• CO2: 0 to 5,000 ppm • Air velocity: -5 to 35 m/s • Airflow: 0 to 99,999 m3/h • Gas detection: 0 to 10,000 ppm • Tachometry: 30 to 60,000 rpm
• Humidity: 3 to 98 %RH

7

INDUSTRY / SERVICE SECTOR

Thermometers

Portable instruments

Temperature

Class 210

TM 210

The differential thermometer TM 210 allows the temperature of 4 thermocouple probes to be taken simultaneously and the differential value to be displayed. This instrument is suitable for any process where it is necessary to control the temperature at several points.

• Temperature: -200 to +1,760 °C • 2 Pt100 channels • 1,000 datasets • Calculation of U coefficient • 4 thermocouple inputs

Wireless probes

Elastomere overmoulding

Data processing software

Interchangeable measurement modules

Thermocouple module

4 inputs

U coefficient module

SMART+ probes

8

  • TR 61/62
  • TK 61/62

• 1 or 2 inputs • Pt100
• 1 or 2 inputs • Thermocouple K, J, T, S

  • • -200 to +1,760 °C
  • • -100 to +400 °C

Hold/min/max functions

Large choice of probes

General use

• -20 to 40 °C • Penetration probe

Infrared

KIRAY 100 / 200 / 300 • Diagnose, inspect and check any temperature, with the advantage of using ‘’no-contact’’ technology
• -50 to +2,200 °C

9

CONTROL OF BOILERS

Combustion gas analysers

Kigaz

Gas analysis / Temperature / Pressure

KIGAZ 50 / 80 / 110 / 210 / 310

We have developed a new range of combustion gas analysers, which fulfills all the needs of heating professionals. Our analysers are scalable and offer many solutions for any type of boiler up to 400 kW, to improve efficiency and to control pollutant emissions.

Up to 4 interchangeable sensors

Elastomere protective cover

Data processing software

FREE

application

Any type of boiler

SOFTWARE

  • Ligaz-2
  • KIGAZ mobile

iOS and Android application

  • • Record your customers, boilers
  • • Automatic report filling

and measurements
• Synchronisation of PC/instrument

database

• Real-time measurement display

• Graphical display

Logaz-2

• Data recording
• Easy reading of measurement reports. Customize, print and export your files
• Display and recording of measurements in real-time
• CSV, XML and PDF export
• Synchronisation of PC/instrument
• Organize your timetable, database maintenance contracts, follow-ups

10

Interchangeable sensors

The sensor electronics contain calibration data, which means that the operator can replace them without returning the unit to the factory. Sauermann equips its KIGAZ (excluding KIGAZ 80 and 50) units with a lead-free O2 sensor with a lifetime of 5 years.

Lead-free

Pb

O2 sensor

Connected instruments

Available as an option, the low consumption Bluetooth® module is compatible with all KIGAZ units (excluding the class 50) and provides significant time gains by wirelessly connecting analysers with LIGAZ-2 or LOGAZ-2 software or the mobile KIGAZ application.

Bluetooth® connection

Expert

KIGAZ 310 • Up to 4 interchangeable sensors • Changeable probe lenght
• Built-in water trap • 3 pressure sensors

  • • Wide color screen
  • • Supplied with Ligaz-2 software,

protective cover and transport case
• Customized procedures

Auto-zero in the flue
O2LL / CO-H2 / NO / NO2 / SO2 / CH4 sensors, standard or option

CO dilution
Mobile application

5%

Long Life O2 sensor
Bluetooth® connection

O2

Supplied with CALIBRATION certificate

DHW network 2 TcK inputs
Built-in printer

11

O2LL / CO-H2 / NO / CH4 interchangeable sensors

Flexible

KIGAZ 210

Mobile application

• Up to 3 interchangeable sensors • CO sensor protection by solenoid valve • Auto-zero in the flue • Reports printing

Long Life O2 sensor

• Supplied with Ligaz-2 software, protective cover and transport bag

O2

Supplied with CALIBRATION certificate

Built-in printer

O2LL / CO-H2 interchangeable sensors

Essential

KIGAZ 110

Mobile application

• 2 interchangeable sensors • Sensor protection by pump shutdown • Reports printing

Long Life O2 sensor

• Supplied with Ligaz-2 software, protective cover and transport bag

O2

Supplied with CALIBRATION certificate

Built-in printer

Compact

KIGAZ 80 • 2 interchangeable sensors • Sensor protection by pump shutdown • Supplied with Ligaz-2 software, protective cover and transport bag

O2 / CO-H2 interchangeable sensors

Supplied with CALIBRATION certificate

External printer (option)

Mobile application

12

Economical

KIGAZ 50 • 2 fixed sensors

External printer (option)

• 10h battery life • Backlight • Automatic shutdown • Supplied with transport bag

Supplied with ADJUSTMENT certificate

O2 / CO sensors
DHW network 1 TcK input
Auto-zero in 30 seconds

Additional measurements
Key points of the range

H2O recovery unit - SCU

Gas detection

FG 110

Gas network

MP 110

Refrigerant gases

DF 110

Provides an extra layer of defense against moisture & keeps the integrity of the gases being sampled. Ideal for low range NO2 & low range SO2 measurements, the Sample Conditioning Unit is compatible with all of the portable

• Detection of gas such as methane (CH4), LPG (isopropanol and isobutane) and other combustible gases (hydrocarbons)

Gas tightness special manometer for gas network

• Detector of refrigerant gases and hydrogen (HFC, HCFC, Nidron 5...)
• 0 to 500 mbar
• Visual and audible alarm

• Manual and automatic self-calibration
• Flexible hose

combustion gas analyzers.

Industrial

Si-CA 8500

O2, CO, CO2, NO, NO2, SO2, CxHy (HC), H2S, VOC

US EPA CTM-30

• Up to 9 gas sensors

and CTM-034 compliant

• Low NO, NO2 and SO2 • Stack gas velocity • Built-in thermoelectric chiller • Automatic condensate drain • High accuracy NDIR sensors • Upgraded memory (2,000 tests)

PID VOC sensor option

13

MONITORING

Indoor air quality monitors

Service, Residential & Commercial Applications

IAQ analysis

REAL-TIME Continuous Data Logging
PC Software and USB Included

Active Internal Sampling Pump
Barometric Air Pressure

Light Weight, Durable and Easy–to–Transport Design
Li-Ion Rechargeable Battery

Easy to Use Menu System
Large Internal Memory

Si-AQ Comfort / Si-AQ VOC / Si-AQ Expert / Si-AQ Pro

By offering Indoor Air Quality (IAQ) professionals the ability to custom tailor their IAQ Monitors to meet their own specific requirements. Build your Indoor Air Quality monitor to detect for anywhere from one gas measurement (CO2 only) up to seven total gas sensors in a single IAQ Monitor.

SOFTWARE

Si-AQ PC Software

• Real-time continuous data logging for graphs, maximum, minimum, average for all Indoor Air Quality parameters
• Alarms settings for every air quality parameter including recording the time duration that alarms have been exceeded
• Variety of saving and printing options • Wireless communications with Bluetooth®

14

IAQ analysis in homes, schools and more

Si-AQ Comfort

• IAQ tool for HVAC professionals • Active internal sampling pump • Compact handheld unit • Large internal memory (2,000 tests) • Protective magnetic rubber boot • Optional wireless printer

CO2, CO, Temperature, %RH,
Wet bulb, Dew Point, Barometric pressure

• Optional handheld probe

IAQ analysis: industrial safety, environmental, laboratories and more

Si-AQ VOC • Dynamic PID TVOC sensor: 0-20,000 ppb or 0-200 ppm • Temperature, %RH, and barometric pressure included • Active internal sampling pump

Select up to 3 gases in total:
COV, CO2, CO, Formaldehyde, NO2,
NO, O2, SO2, H2S

• Large internal memory (2,000 tests)

Advanced Technology for IAQ Analysis: Monitoring & data Logging for IAQ Testing in Buildings, Hospitals, Universities, Labs, Clean Rooms, Airports and More

Si-AQ Expert • Temperature, %RH, and barometric pressure included • Real-Time Continuous Data Logging • Active Internal Sampling Pump

Select up to 7 gases in total:
TVOC, CO2, CO, Formaldehyde, NO2,
NO, O2, O3 (ozone), SO2, H2S

• Large internal memory (2,000 tests) • Portable with Swivel Handle

Monitoring & Real Time Data Logging for Complete Air Quality Analysis

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  • Using Honey Bees and Thermal Desorption/Gas Chromatography

    Using Honey Bees and Thermal Desorption/Gas Chromatography

    University of Montana ScholarWorks at University of Montana Graduate Student Theses, Dissertations, & Professional Papers Graduate School 2001 Using honey bees and thermal desorption/gas chromatography/ mass spectrometry to assess the regional distribution of bioavailable volatile organic compounds in northeast Maryland David C. Jones The University of Montana Follow this and additional works at: https://scholarworks.umt.edu/etd Let us know how access to this document benefits ou.y Recommended Citation Jones, David C., "Using honey bees and thermal desorption/gas chromatography/mass spectrometry to assess the regional distribution of bioavailable volatile organic compounds in northeast Maryland" (2001). Graduate Student Theses, Dissertations, & Professional Papers. 9148. https://scholarworks.umt.edu/etd/9148 This Thesis is brought to you for free and open access by the Graduate School at ScholarWorks at University of Montana. It has been accepted for inclusion in Graduate Student Theses, Dissertations, & Professional Papers by an authorized administrator of ScholarWorks at University of Montana. For more information, please contact [email protected]. The University of Montana Permission is granted by the author to reproduce this material in its entirety, provided that this material is used for scholarly purposes and is properly cited in published works and reports. **Please check "Yes” or ”No" and provide signature** Yes, I grant permission No, I do not grant permission Author’s Signature: ^ Date: _ r Any copying for commercial purposes or financial gain may be undertaken only with the author’s explicit consent. 8/98 Using Honey Bees and Thermal Desorption / Gas Chromatography / Mass Spectrometry to Assess the Regional Distribution of Bioavailable Volatile Organic Compounds in Northeast Maryland by David C.
  • Removal of Volatile Organic Compounds from Soil

    Removal of Volatile Organic Compounds from Soil

    Water Pollution X 107 Removal of volatile organic compounds from soil R. S. Amano University of Wisconsin-Milwaukee, USA Abstract Pollution by petroleum products is a source of volatile organic compounds in soil. Therefore, laboratory column venting experiments were completed in order to investigate the removal of a pure compound (toluene) and a mixture of two (toluene and n-heptane) and five (toluene, n-heptane, ethylbenzene, m-xylene and p-xylene) compounds. The choice of the compounds, as well as their proportion in the mixture, was made on the basis of the real fuel composition. The objective of this study is a comparison between the experimental volatile organic compounds removal results and the computational fluid dynamics (CFDs) analysis. The proposed model for the contaminants transport describes the removal of organic compounds from soil, the contaminants being distributed among four phases: vapor, nonaqueous liquid phase, aqueous and “solid”; the local phase’s equilibrium and the ideal behavior of all four phases was found to be accurate enough to describe the interphase mass transfer. The process developed in the lab consists of a heater/boiler that pumps and circulates hot oil through a pipeline that is enclosed in a larger-diameter pipe. This extraction pipe is vertically installed within the contaminated soil up to a certain depth and is welded at the bottom and capped at the top. The number of heat source pipes and extraction wells depends on the type of soil, the type of pollutants, and the moisture content of the soil and the size of the area to be cleaned.
  • Overpressure Chamber for Testing in High Air Purity Conditions

    Overpressure Chamber for Testing in High Air Purity Conditions

    5th International Scientific and Business Conference—Future Engineering 2019 ISBN: 978-1-60595-632-9 Overpressure Chamber for Testing in High Air Purity Conditions Stanisław Kozioł1, Krzysztof Matecki1, Tomasz Samborski1, Mariusz Siczek1, Jacek Wojutyński1 and Andrzej Zbrowski1 ABSTRACT Volatile organic compounds (VOC) released into the air contribute to adverse climate changes, discomfort, and harmful effects on the human body. Principal sources of VOC emissions are industrial processes and, in the case of rooms for human residence, building materials and indoor furnishings. VOC emissions are monitored and restricted in line with legislation prevailing in the European Union and most countries of the world. The chamber method is used to measure noxious substance emissions from building materials and indoor furnishings. The paper analyses the impact of regulatory requirements concerning emission test parameters and apparatus on technical solutions as part of air preparation assemblies and emission measurement chambers. The design of a 0.225m 3 steel chamber is presented, which was developed by our Institute based on our experience in the design and construction of similar apparatus. Results of verification testing are described. Keywords: volatile organic compounds, VOC emissions, emission measurement, chamber method, measurement chamber INTRODUCTION Volatile organic compounds (VOC) are a group of organic compounds that easily become vapour or gas, exhibit high vapour or gas pressures, a low solubility in water, and boiling temperatures in the range of 50–250°C [1]. ______________ 1Łukasiewicz Research Network—Institute for Sustainable Technologies, 6/10 K. Pułaski Street, Radom 26-600, Poland 349 Volatile organic compounds are side products in a number of industrial processes and sources of environmental pollution.