1. PRODUCT LAUNCH
PORTABLE GAS ANALYZER “ENE-001
OCTOBER 2016
MOHAMAD MISFER

2. IS THIS
HOW PEOPLE
REACT
WHEN INDUSTRY
THROWS UP!

3. AIR QUALITY AND POLLUTION MEASUREMENT

4. AIM
To be a leading producer in the stream of
Environmental engineering, especially on AIR
related equipments. To capture the dynamic
leadership with our unique design and
technology corporate in the devices we make.
Importantly, concentrating towards a hygienic
atmosphere and dedication towards nature.
And to provide the quality product and service
to our customers.

5. OBJECTIVES
 Become as the Best Environmental industry in INDIA.
 Improve the customer satisfaction through the good quality
of products.
 Turn in profits from the first year of Launching.
 The creation of unique and innovative equipment that will
differentiate Environmental and Engineering Solutions from
other firms.
 Four new outlets in next five years through success of the
product.
 To exceed 5-6 million in Annual sales by the third year of
plan implementation.

6. ABSTRACT
 Using an advanced microprocessor controlled detection
system, the Series of EnE-001 Personal Gas Monitor
detects the presence of either PM 2.5- PM 10 (or)
Combustible gases(lel %), carbon monoxide (CO),
hydrogen sulfide (H2S), or oxygen(O2).
 The EnE-001 Series of our sampler is compact size and
easy-to-use design make it ideally suited for a wide range
of applications, including sewage treatment plants, tunnels,
hazardous waste sites, petro-chemical facilities, oil fields,
mines, and chemical plants.
 This EnE-001 Series of sampler is even small enough to be
placed conveniently in a pocket.

7. NTRODUCING
One solution for detecting toxic gasses and dust in air!
Personal GAS Monitor/Analyser
• Compact design
• Fast, accurate response with backlit digital liquid
crystal display (LCD)
• Visual, audible, and vibration alarms
• Microprocessor control for reliability, ease of use,
and advanced capabilities
• Resistance to RF (radio frequency) interference
• Datalogging including interval trend data and alarm trend data
• Peak, STEL, and TWA indication for CO-ene001 & HS-ene001
• Over range alarm with Sample-drawing pump with up to 40-foot range.
• Gas, battery, sensor failure, and system failure alarms
• Over14hours operation on one set of fully charged alkaline batteries.

8. TECHNOLOGY
 The advanced microprocessor controlled technology employed makes these ALERTS
METERS highly dependable, reliable and accurate. These compact, self contained and
intrinsically safe instrument housed in a weather proof, high impact plastic are powered
with a Three AA size alkaline batteries standard. Ni-MH Battery Pack (3.6 VDC Nominal)
optional, Direct Charging.
 On switching ‘ON’, the instrument goes through the complete self integrity check, and
display factory set ‘Warn’ and ‘Alarm’ values, before indicating ‘Ready’ for monitoring.
 While in operation, the instrument monitors the work place continuously, giving the latest
updated concentration of designated gas through diffusion sampling. Suction sampling is
possible with an optional manual or battery operated and adapter. The poison resistant
pellister or long life, integrally mounted electrochemical sensors with inbuilt cross interface
filters are gas specific. Optionally the sensors can be mounted on an extension cable for
monitoring inaccessible locations before entry.
 Choice of three operating modes: Normal Mode for typical confined space or area
monitoring; Bar Hole Mode for checking of bar holes when searching for underground gas
leaks; and Leak Check Mode for locating leaks in valves and piping.

9. SPECIFICATION
Targer Gas %LEL
Combutible
Gas
%Volume
Combustible
Gas (optional)
Oxygen(O2) Hydrogen
Sulfide (H2S)
Carbon
Monoxide (Co)
Range
(Increment)
0-100% LEL
(1% LEL)
0 - 100% vol
(1% vol)
0-40.0% vol
(0.1 vol%)
0-100 ppm
(0.5 ppm)
0-500 ppm
(1 ppm)
Auxiliary
Range
(Increment)
0-5,000 ppm
(100 ppm)
In Leak Check
Mode Only
n/a n/a n/a n/a
Sampling
Method
Diffusion/Sample Draw
Accuracy ± 5% of reading
or ± 2% LEL
(whichever is
greater)
± 5% of
reading or ±
2% full scale
(whichever
is greater)
±0.5% of O2 ± 5% of
reading or ±
2 ppm H2S
(whichever
is greater)
±5% of reading (or)
±5 PPM Co
(whichever
is greater)
Display Dot Matrix LCD Display
Response time
T90 Within 30 Seconds
Gas Alarms
(Factory
Settings)
Alarm 1
10% LEL
Alarm 2
50% LEL
None Alarm 1
19.5 vol%
(Decreasing)
Alarm 2
23.5 vol%
(Increasing)
Alarm 1
10 ppm
Alarm 2
30 ppm
TWA
10 ppm
STEL
15 ppm
Alarm 1
25 ppm
Alarm 2
50 ppm
TWA
25 ppm
STEL
200 ppm
Operating
Temperature
& Humidity
-20°C to 55°C/Below 85% RH (Without Condensation)
Storage Temperature: -20°C to 55°C

10. SPECIFICATION
Safety/
Regulatory
Power
Supply
•Three AA size alkaline batteries standard
•Ni-MH Battery Pack (3.6 VDC Nominal) optional, Direct Charging
•Single Cell Lithium Battery with In-built charge control
Continuous
Operating
Hours
@ 25 °C
• Alkaline Batteries: 14 Hours (Non Alarm Operation, Fully Charged)
• Ni-MH Battery Pack: 16 Hours (Non alarm Operation, Fully Charged)
Case High-impact Plastic, RF Shielded, Dust and Weather Proof
Accessories •Battery charger
•Operation manual
•Protective rubber boot
•10 inch probe (optional)
Dimensions Approximately 186(H) x 75(W) x 40(D) mm (7.3”H x 3”W x 1.6”D)
Approximately 320 g (11.2877ounces(oz))
Weight

11. CHARGING LITHIUM-ION BATTERY AND CHARC.:
Charge V/cell
Capacity at
cut-off voltage
Charge time
Capacity with full
saturation
3.80
3.90
4.00
4.10
4.20
60%
70%
75%
80%
85%
120 min
135 min
150 min
165 min
180 min
~65%
~75%
~80%
~90%
100%
Typical charge characteristics of lithium-ion. Adding full saturation at the set
voltage boosts the capacity by about 10 percent but adds stress due to high voltage.
Summary
Charging lithium-ion batteries is simpler than nickel-based systems. The charge circuit is straight
forward; voltage and current limitations are easier to accommodate than analyzing complex voltage
signatures, which change as the battery ages. The charge process can be intermittent, and Li-ion does
not need saturation as is the case with lead acid. This offers a major advantage for renewable energy
storage such as a solar panel and wind turbine, which cannot always fully charge the battery. The
absence of trickle charge further simplifies the charger. Equalizing charger, as is required with lead
acid, is not necessary with Li-ion.

12. OVERVIEW
Instrument Description
The instrument includes the case, sensors, LCD, control buttons, printed circuit boards, alarm LED’s,
infrared communication port, buzzers, vibrator, batteries, pump, flow chamber, and inlet filterholder.
Figure 1: Components of the ENE-001, Front & Back

13. CASE DESCRIPTION
Figure 2: Components of the ENE-001, Right &
Bottom
Case
•The Model ENE-001’s sturdy, high-impact
plastic case is radio frequency (RF) resistant
and is suitable for use in many environmental
conditions, indoors and out.
•The case is dust proof and weather
resistant.
•Rubber gripping surfaces are located on the
right and left side of the case to aid in holding
the unit in your hand.
•A clear plastic window through which the
LCD can be viewed is located on the front of
the case.
•Three brass charging contacts that are used
when the ENE-001 is placed in the charging
station are on the bottom of the case.
•The battery cover release knob is also on the
•bottom.
•The battery cover and flow chamber are
located on the back of the ENE-001.
•The inlet filter holder is located on the top of
the
•ENE-001 case.

14. PART DESCRIPTION AND ASSEMBLY
Part #
1. Tapered rubber inlet nozzle, 4”
2. Filter holder, clear plastic
3. Cotton balls, filters for probe
4. Teflon filter disc
5. Wire mesh disk filter
6. Top cover assembly
7. Pump replacement with cable and connector
8. Main case assembly
9. Battery pack gasket
10. Main case gasket
11. LCD display
12. CPU PC board assembly
13. Battery, lithium, CR 1220, for main PCB
14. Vibration motor
15. Tap tight screw M2x4.5 mm, phillips self-tapping
16. Sensor PC board assembly
17. Sensor gasket
18.
Filter disk, H2S scrubber, 5 pack, for
combustible diffusion port
19. Filter, charcoal, for CO sensor
20. Sensor cap assembly
21. Belt clip
22. Batter pack, lithium ion
23. Alkaline Battery pack cover with gasket
24.
Alkaline Battery pack without cover with
gasket
25. Wrist strap
26. Screw M2 x 16
27. Screw M2 x 6
28. Screw M2 x 5
29. Truss screw M2 x 5
30. O2 sensor
31. LEL sensor
32. CO sensor
33. H2S sensor
34. VOL sensor
35. PPM sensor
36.
Alkaline Battery pack without batteries
with gasket
Figure 3: Part assemblyof the ENE-001,

15. SENSOR
What is Sensor?
 A sensor is a device that measures a physical quantity and converts it
into a 'signal' which can be read by an observer or by an instrument. For
example, a mercury thermometer converts the measured temperature
into the expansion and contraction of a liquid which can be read on a
calibrated glass tube.
Figure 4: Types of sensors

16. POWER SUPPLY
 The sensors must be powered with a linear regulator for
maximum precision.
 Power supplies with high frequency noise, such as
switching supply circuits, can cause increased noise in the
sensor’s measured value.
 Altering the power supply will require recalibration.
 We recommend calibrating the sensor in its final installation,
calibrating the sensor outside with a different configuration
will yield inconsistent calibration results.

17. CALIBRATION PROCEDURE
 We recommend calibrating all sensors.
 The procedure differs between models.
 Calibration gas is available from CO2Meter directly.

18. SERIAL FORMAT AND CONNECTION
Connection
 Communication to and from the various sensors is via a
serial connection.
 Pins are shown looking at the connector of the sensor.
COZIR‐Ambient
GND 0v
V+ 3.3‐5.5V (3.3V recommended
Tx‐OUT Voh will be 3V Sensor output
Rx‐IN Used for configuration, etc.
Figure 5 & 6: Connection of sensor, example: Co-Zirconia

19. AMBIENT SENSORS
 For ambient sensors we recommend an atmospheric
calibration. Fresh air is generally assumed to be at 450ppm,
but alternatively you can use 450ppm calibration gas.
 This reading can be confirmed with 2,000ppm calibration
gas to check the span of the sensor, although this step is
unnecessary.

20. SENSORS USED IN ENE-001
 The ENE-001 uses up to five sensors to monitor combustible
gas, oxygen (O2), carbon monoxide (CO), and hydrogen
sulfide (H2S) simultaneously.
 The sensors are located inside the ENE-001 and are held in
their sockets by the flow chamber.
 The sensors use different detection principles, as described
below.

21. COMBUSTIBLE GAS SENSORS
% LEL Sensor
 The % LEL sensor detects combustible gas in the % LEL range.
 It uses a catalytic element for detection.
 The reaction of gas with oxygen on the catalyst causes a change
in the resistance of the element which affects the current flowing
through it.
 The current is amplified by the ENE-001’s circuitry, converted to a
measurement of combustible gas concentration, and displayed on
the LCD.
(NOTE: The % LEL sensor can not be used in instruments that utilize
Bar Hole Mode or Leak Check Mode.)

22. LEL/PPM Sensor
The LEL/ppm combustible sensor is a specialized
version of the %LEL sensor.
 It is used instead of the % LEL sensor in instruments
that are intended for use in Bar Hole Mode or Leak
Check Mode.
The LEL/ppm sensor can also be used for detection in
Normal Mode.

23. %Volume Sensor
The % volume sensor detects combustible gas in the %
volume range.
It uses a thermal conductivity (TC) element for
detection.
The presence of combustible gas cools the element
causing a change in the resistance of the element which
affects the current flowing through it.
The current is amplified by the ENE-001’s circuitry,
converted to a measurement of combustible gas
concentration, and displayed on the LCD.

24. CO and H2S Sensors
The CO and H2S sensors are electrochemical cells that
consist of two precious metal electrodes in a dilute acid
electrolyte.
 A gas permeable membrane covers the sensor face and
allows gas to diffuse into the electrolyte.
The gas reacts in the sensor and produces a current
proportional to the concentration of the target gas.
 The current is amplified by the Model ENE-001’s circuitry,
converted to a measurement of gas concentration, and
displayed on the LCD.

25. Oxygen Sensor
The O2 sensor is a galvanic type of sensor.
A membrane covers the cell and allows gas to diffuse
into the cell at a rate proportional to the partial pressure
of oxygen.
The oxygen reacts in the cell and produces a voltage
proportional to the concentration of oxygen.
The voltage is measured by the Model ENE-001’s
circuitry, converted to a measurement of gas
concentration, and displayed on the LCD.
Filters used: HC Filter, CO Filter, Charcoal Filter
Inlet Filter Holder : The filter holder is a clear plastic dome shaped piece on
the top of the case.

26. SENSOR FOR PM 2.5 AND PM 10
COMPARISON OF PIDS AND FIDS
 Photoionization detectors (PIDs) and flame ionization detectors
(FIDs) are sensitive low-range gas and vapor instruments that are
optimized to detect different gases, typically volatile organic
compounds (VOCs).
 While both can measure in parts per million (ppm), they accomplish
the measurements in different ways.
 This is similar to measuring distance using a tape measure instead of
a yardstick (you get the same reading in feet using a different tool).
 By better understanding the strengths and weaknesses of each
technology, the most appropriate type of monitor can be chosen for a
particular application.
 In general, PIDs are smaller, lighter and simpler to use, and
therefore are preferred for portable applications, where possible.

27. HOW DO PID‘S AND FID’S WORK
 A PID uses an ultraviolet (UV) light source (photo) to ionize a gas sample and detect its
concentration.
 Ionization occurs when a molecule absorbs the high-energy UV light, ejecting a negatively
charged electron and forming of positively charged molecular ion.
 The gas becomes electrically charged. These charged particles produce a current that is
easily measured at the sensor electrodes.
 Only a small fraction of the VOC molecules are ionized.
 Therefore, PID measurements are non-destructive and samples can be bagged and used
for further analysis.
 An FID uses a hydrogen-air flame to ionize the sample gas and detect its concentration.
 Ionization occurs when electrons are ejected from VOC molecules in the hot combustion
flame.
 These ions are electrically charged and produce a current that is easily measured at the
sensor electrodes.
 The VOCs in the sample stream are completely combusted.
 Therefore, FIDs are destructive and effluent samples are not suitable for further analysis.

28. PID/FID COMPARISON
PID FID
Handheld, lightweight
Better at lower concentrations
0.005 (5 ppb) to 10,000 ppm (parts per million
Measures organic vapors and gases; measures some
inorganic gases
Selectivity can be increased with lower energy lamps
and decreased with higher energy lamps
Can measure directly in an inert gas matrix such as
argon or nitrogen
Non-destructive: allows sample collection with complete
sample integrity
Personnel monitoring and Fugitive emissions
Reliable, low cost, long life lamp
Intrinsically safe with cold operation
Low cost
Bulky, heavy, requires hydrogen cartridges
Good linearity throughout range
1 to 50,000 ppm
Measures organic vapors and gases; measures a few
inorganic gases
Broad sensitivity
Requires oxygen presence; for inert gas
measurements, requires dilution with air
Destructive: sample is “burned” as it is ionized
Fugitive emissions, too bulky for personnel monitoring
Frequent “flame-out” issues and hydrogen cylinder
replacement
Explosion proof using flame arrestor to isolate hot
flame; not desirable for some extremely hazardous
environments
High cost

29. LIQUID CRYSTAL DISPLAY
A digital LCD (liquid crystal display) is visible through a
clear plastic window on the front of the case.
The LCD display simultaneously shows the gas reading
for all installed sensors.
 The display also shows information for each of the ENE-
001’s program modes.

30. CONTROL BUTTONS
Five control buttons are located below the LCD. They are arranged in
a circular pattern around a central button, the POWER ENTER button.
The DISPLAY (ADJ) button is on the left, the RESET SILENCE button
on the right, the ▲AIR button on the top, and the (SHIFT)▼ is on the
bottom.
Button Function(s)
POWER ENTER • turns the ENE-001 on and off.
• used during setup and calibration.
RESET SILENCE silences and resets audible alarm if the ENE-001 is programmed
for latching alarms and the alarm silence option is on 1
DISPLAY (ADJ) • activates Display Mode
• enters instructions into the ENE-001’s microprocessor
▲AIR • activates the demand-zero function (automatically adjusts the
ENE-001 in fresh-air conditions)
• scrolls through the display and settings modes
(SHIFT)▼ • scrolls through the display and settings modes
• enters instructions into the ENE-001’s microprocessor

31. Printed Circuit Boards
The ENE-001 printed circuit boards analyze, record,
control, store, and
display the information collected.
 The circuit boards are located inside the case.
 They are not user serviceable.
alarm LED Arrays
Four red alarm LED (light emitting diode) arrays are
visible through
frosted plastic lenses in the case.
One is on the front, one on the left side, one on the
right side, and one on the top of the case.
The alarm LED arrays alert you to gas, low battery,
and failure alarms.

32. Buzzers
Two solid-state electronic buzzers are located inside the case.
Two
holes on the bottom front of the case allow the sound to exit
the case.
The buzzers sound for gas alarms, malfunctions, low battery
voltage,
and as an indicator during use of the ENE-001’s many display
and
adjustment options.
Vibrator
A vibrating motor inside the ENE-001 case vibrates for gas
alarms,
unit malfunctions, low battery voltage, and as an indicator
during
normal use of the various modes of the ENE-001.

33. INFRARED COMMUNICATION PORT
(OPTIONAL)
An infrared (IR) communications port is located on the lower right
side of the ENE-001.
 The data transmitted through the port is in standard IrDA protocol.
A computer’s infrared port or an IrDA/serial or IrDA/USB cable
connected to a computer’s serial port can be used to download data
saved by the ENE-001 to a computer using the ENE-001 Downloading
Software. See the downloading software operator’s manual for data
logging and downloading instructions.

34. BATTERIES
Three AA-size alkaline batteries (standard) or an optional rechargeable Ni-MH
battery pack (3.6 VDC) power the ENE-001.
Instrument run time is dependent upon battery type.
At 25°C the alkaline batteries last up to 14 hours and the Ni-MH battery pack
lasts up to 16 hours.
The battery icon in the lower right of the LCD shows remaining battery life.
If a Ni-MH battery pack is installed in the ENE-001, an “N” appears to the right
of the battery icon.
When the ENE-001 detects low battery voltage, a low battery warning is
activated.
When battery voltage is too low for normal operation, the ENE-001 sounds a
dead battery alarm.
The alkaline batteries or Ni-MH pack can be replaced by removing the battery
cover on the back of the case.
Turn the battery cover release knob counterclockwise to release the cover.
The Ni-MH battery pack can be recharged by placing the ENE-001 in its
optional battery charging station or by placing the battery pack in the charging
station.

35. Pump
A diaphragm pump inside the ENE-001 draws the sample to
the sensors.
It can draw sample from as far as 40 feet from the ENE-001.
The pump is not user serviceable.
CAUTION: Sample hose lengths of more than 40 feet are
not recommended for the ENE-001 because of flow rate
reduction.
Flow Chamber
The flow chamber is on the back of the ENE-001 and is held
in place by three phillips screws. The flow chamber seals on
the face of the
sensors inside the ENE-001 and routes flow from the pump
to the sensors to the exhaust port (also a part of the flow
chamber).
The flow chamber includes filter ports for the HC filter and
the CO filter.

36. WHAT’S A BETTER SAMPLING METHODOLOGY
FOR A TOXIC GAS DETECTION SYSTEM?
Definitions
 There are two prominent sampling methods
used in gas detection: Sample draw and pass
-ive diffusion.
 A sample draw system uses a pump to draw sample back into the
instrument, where it enters the sensor for analysis, and is then
exhausted to the atmosphere or vent line.
 Gas detection instruments with passive diffusion sensors do not use a
pump to pull the sample to the sensor. Instead, they rely on the inherent
movement of the air to direct a sample to them. In portable/survey
applications, the sensors are usually located integral to the analyzer
enclosure, but can also be deployed remotely on an umbilical electrical
line.
 In multi-point systems, they are mounted remotely in the field, and
connected electrically to the analyzer control panel, or SCADA
(Supervisory Control and Data Acquisition) system. In some cases,
wireless communication can be used.

37. VASTHI MULTI GAS ANALYSER OUR GAS ANALYSER ENE-001”
They are one of the existing designers
& producers of portable gas analyzer.
They produce Portable Single & Multi-
Gas analyzer
Sampling: Suction
No NDIR/PI detector as they do not
produce Particulates detector
Data logger functions transfers through
USB with 1 Megabyte non-volatile
memory
Ambient monitoring only
Approximately 155.5(H) x 106.8(W) x
50(D) mm (7.3”H x 3”W x 1.6”D)
Approximately 500 g
(17.637ounces(oz))
No filters used
Beginners
We produce both Dust(PM 2.5 &PM 10)
and Gas portable analyzer
Sampling: Diffusion/Suction
We use PI Detector for Dust level
detection
Same functions to transfer data/IRDA
Ambient monitoring/Confined area
depending upon clients need
Approximately 186(H) x 75(W) x 40(D)
mm (7.3”H x 3”W x 1.6”D)
Approximately 320 g
(11.2877ounces(oz))
Filters used: HC Filter, CO Filter,
Charcoal Filter

38. STP ANALYSIS
Demographic
Geographi
c
psychographi
c
Behavioral

39. LET’S RECTIFY

40. BIBLIOGRAPHY
DrägerSensor® & Portable Instruments Handbook 3rd Edition
“A Study on Basics of a Gas Analyzer”
Mr. Sibu Thomas1, Ms. Nishi Shahnaj Haider2
Assistant Professor, Department of Computer Science, S.T.C College., Bhilai,
Chhattisgarh, India1
Microcontroller-Based Nitrox Analyzer, Featured article By David smith
COMPARISON OF PHOTOIONIZATION DETECTORS (PIDS) AND FLAME
IONIZATION DETECTORS (FIDS) . RAE system by HONEYWELL
TI Designs
PM2.5/PM10 Particle Sensor Analog Front-End for Air Quality Monitoring
Design. By TEXAS Instruments
Pollution Prevention and Abatement Handbook. WORLD BANK GROUP
Effective July 1998. WHO (World Health Organization). 1979. “Sulfur-Oxides
and Suspended Particulate Matter.” Environmental Health Criteria 8. Geneva.

41. ENERGY
NEVER
DIES
THE END