Endress+Hauser Proline Prowirl D 200 Specifications

TI01332D/06/EN/01.18
71386554

Products Solutions Services

Technical Information

Proline Prowirl D 200

Vortex flowmeter

Cost-effective wafer-flange measuring device, available in compact or remote
version

Application

• Preferred measuring principle for wet/saturated/
superheated steam, gases & liquids (also cryogenic)

• For all basic applications and for 1-to-1 replacement of
orifice plates

Device properties

• Face-to-face length of 65 mm (2.56 in)

• No flanges

• Low weight

• Display module with data transfer function

• Robust dual-compartment housing

• Plant safety: worldwide approvals (SIL, Haz. area)

Your benefits

• Integrated temperature measurement for mass/energy flow
of saturated steam

• Easy alignment of the sensor – included centering rings

• High availability – proven robustness, resistance to
vibrations, temperature shocks & water hammer

• Long-term stability – robust drift-free capacitive sensor

• Convenient device wiring – separate connection
compartment

• Safe operation – no need to open the device due to display
with touch control, background lighting

• Integrated verification – Heartbeat Technology

Table of contents

Proline Prowirl D 200

About this document ........................ 3

Symbols used ................................ 3

Function and system design ................... 4

Measuring principle ............................ 4

Measuring system ............................. 7

Input ..................................... 7

Measured variable ............................. 7

Measuring range .............................. 8

Operable flow range ........................... 12

Input signal ................................ 13

Output .................................. 13

Output signal ............................... 13

Signal on alarm .............................. 15

Load ..................................... 16

Ex connection data ........................... 17

Low flow cut off ............................. 22

Galvanic isolation ............................ 22

Protocol-specific data .......................... 22

Power supply ............................. 24

Terminal assignment .......................... 24

Pin assignment, device plug ...................... 26

Supply voltage .............................. 26

Power consumption ........................... 27

Current consumption .......................... 27

Power supply failure .......................... 28

Electrical connection .......................... 28

Potential equalization ......................... 32

Terminals ................................. 32

Cable entries ............................... 32

Cable specification ............................ 32

Overvoltage protection ......................... 33

Performance characteristics .................. 34

Reference operating conditions ................... 34

Maximum measured error ....................... 34

Repeatability ............................... 36

Response time .............................. 36

Influence of ambient temperature ................. 37

Installation ............................... 37

Mounting location ............................ 37

Orientation ................................ 37

Inlet and outlet runs .......................... 38

Mounting kit for disc (wafer version) ............... 40

Length of connecting cable ...................... 41

Mounting the transmitter housing ................. 41

Special mounting instructions .................... 42

Environment .............................. 43

Ambient temperature range ..................... 43

Storage temperature .......................... 43

Climate class ............................... 43

Degree of protection .......................... 43

Vibration resistance ........................... 44

Shock resistance ............................. 44

Impact resistance ............................ 44

Electromagnetic compatibility (EMC) ............... 44

Process .................................. 44

Medium temperature range ...................... 44

Pressure-temperature ratings .................... 45

Nominal pressure of sensor ...................... 46

Pressure loss ............................... 46

Thermal insulation ........................... 46

Mechanical construction .................... 47

Dimensions in SI units ......................... 47

Dimensions in US units ......................... 53

Weight ................................... 57

Materials .................................. 60

Operability ............................... 63

Operating concept ............................ 63

Languages ................................. 63

Local operation .............................. 63

Remote operation ............................ 64

Service interface ............................. 66

Certificates and approvals ................... 67

CE mark ................................... 67

C-Tick symbol ............................... 67

Ex approval ................................ 67

Functional safety ............................. 69

HART certification ............................ 69

FOUNDATION Fieldbus certification ................ 69

Certification PROFIBUS ......................... 69

Pressure Equipment Directive .................... 69

Experience ................................. 70

Other standards and guidelines ................... 70

Ordering information ....................... 70

Product generation index ....................... 71

Application packages ....................... 71

Diagnostics functions .......................... 71

Heartbeat Technology ......................... 71

Accessories ............................... 71

Device-specific accessories ...................... 72

Communication-specific accessories ................ 73

Service-specific accessories ...................... 74

System components ........................... 74

Supplementary documentation ............... 75

Standard documentation ........................ 75

Supplementary device-dependent documentation ....... 75

Registered trademarks ...................... 76

2 Endress+Hauser

Proline Prowirl D 200

A

1.

About this document

Symbols used Electrical symbols

Symbol Meaning

Direct current

Alternating current

Direct current and alternating current

Ground connection

A grounded terminal which, as far as the operator is concerned, is grounded via a
grounding system.

Protective Earth (PE)

A terminal which must be connected to ground prior to establishing any other
connections.

The ground terminals are situated inside and outside the device:

• Inner ground terminal: Connects the protectiv earth to the mains supply.

• Outer ground terminal: Connects the device to the plant grounding system.

Communication symbols

Symbol Meaning

Wireless Local Area Network (WLAN)

Communication via a wireless, local network.

Symbols for certain types of information

Symbol Meaning

Permitted

Procedures, processes or actions that are permitted.

Preferred

Procedures, processes or actions that are preferred.

Forbidden

Procedures, processes or actions that are forbidden.

Tip

Indicates additional information.

Reference to documentation.

Reference to page.

Reference to graphic.

Visual inspection.

Symbols in graphics

Symbol Meaning

1, 2, 3, ... Item numbers

, 2., 3., … Series of steps

A, B, C, ... Views

A-A, B-B, C-C, ... Sections

Endress+Hauser 3

Symbol Meaning

-

.

K-Factor =

Pulses

Unit Volume [m³]

Hazardous area

Safe area (non-hazardous area)

Flow direction

Function and system design

Proline Prowirl D 200

Measuring principle

Vortex meters work on the principle of the Karman vortex street. When fluid flows past a bluff body,
vortices are alternately formed on both sides with opposite directions of rotation. These vortices each
generate a local low pressure. The pressure fluctuations are recorded by the sensor and converted to
electrical pulses. The vortices develop very regularly within the permitted application limits of the
device. Therefore, the frequency of vortex shedding is proportional to the volume flow.

A0033465

 1 Sample graphic

The calibration factor (K-factor) is used as the proportional constant:

Within the application limits of the device, the K-factor only depends on the geometry of the device.
It is for Re > 20 000:

• Independent of the flow velocity and the fluid properties viscosity and density

• Independent of the type of substance under measurement: steam, gas or liquid
The primary measuring signal is linear to the flow. After production, the K-factor is determined in

the factory by means of calibration. It is not subject to long-time drift or zero-point drift.

The device does not contain any moving parts and does not require any maintenance.

The capacitance sensor

The sensor of a vortex flowmeter has a major influence on the performance, robustness and
reliability of the entire measuring system.

4 Endress+Hauser

A0003939-EN

Proline Prowirl D 200

1 2

The robust DSC sensor is:

• burst-tested

• tested against vibrations

• tested against thermal shock (thermal shocks of 150 K/s)
The measuring device uses the tried-and-tested, capacitance measuring technology from

Endress+Hauser, which is already in use in over 450 000 measuring points worldwide. Thanks to its
design, the capacitance sensor is also particularly mechanically resistant to temperature shocks and
pressure shocks in steam pipelines.

Temperature measurement

The "mass" option is available under the order code for "Sensor version". With this option the
measuring device can also measure the temperature of the medium.

The temperature is measured via Pt 1000 temperature sensors. These are located in the paddle of
the DSC sensor and are therefore in the direct vicinity of the fluid.

Order code for "Sensor version; DSC sensor; measuring tube":

• Option AA "volume; 316L; 316L"

• Option BA "volume high-temperature; 316L; 316L"

• Option CA "Mass; 316L; 316L (integrated temperature measurement)"

A0034068

1 Order code for "Sensor version", option "volume" or "volume high-temperature"
2 Order code for "Sensor version", option "mass"

Lifelong calibration

Experience has shown that recalibrated measuring devices demonstrate a very high degree of
stability compared to their original calibration: The recalibration values were all within the original
measuring accuracy specifications of the devices. This applies to the measured volume flow, the
device's primary measured variable.

Various tests and simulation have shown that once the radii of the edges on the bluff body are less
than 1 mm (0.04 in), the resulting effect does not have a negative impact on accuracy.

If the radii of the edges on the bluff body do not exceed 1 mm (0.04 in), the following general
statements apply (in the case of non-abrasive and non-corrosive media, such as in most water and
steam applications):

• The measuring device does not display an offset in the calibration and the accuracy is still
guaranteed.

• All the edges on the bluff body have a radius that is typically smaller in size. As the measuring
devices are naturally also calibrated with these radii, the measuring device remains within the
specified accuracy rating provided that the additional radius that is produced as a result of wear
and tear does not exceed 1 mm (0.04 in).

Consequently, it can be said that the product line offers lifelong calibration if the measuring device is
used in non-abrasive and non-corrosive media.

Air and industrial gases

The measuring device enables users to calculate the density and energy of air and industrial gases.
The calculations are based on time-tested standard calculation methods. It is possible to
automatically compensate for the effect of pressure and temperature via an external or constant
value.

Endress+Hauser 5

Proline Prowirl D 200

This makes it possible to output the energy flow, standard volume flow and mass flow of the
following gases:

• Single gas

• Gas mixture

• Air

• User-specific gas
For detailed information on the parameters, see the Operating Instructions.→  75

Natural gas

The device enables users to calculate the chemical properties (gross calorific value, net calorific
value) of natural gases. The calculations are based on time-tested standard calculation methods. It is
possible to automatically compensate for the effect of pressure and temperature via an external or
constant value.

This makes it possible to output the energy flow, standard volume flow and mass flow in accordance
with the following standard methods:

Energy can be calculated based on the following standards:

• AGA5

• ISO 6976

• GPA 2172

Density can be calculated based on the following standards:

• ISO 12213-2 (AGA8-DC92)

• ISO 12213-3

• AGA NX19

• AGA8 Gross 1

• SGERG 88
For detailed information on the parameters, see the Operating Instructions.→  75

6 Endress+Hauser

Proline Prowirl D 200

Measuring system

The device consists of a transmitter and a sensor.

Two device versions are available:

• Compact version – transmitter and sensor form a mechanical unit.

• Remote version - transmitter and sensor are mounted in separate locations.

Transmitter

Prowirl 200 Device versions and materials:

• Compact or remote version, aluminum coated:
Aluminum, AlSi10Mg, coated

• Compact or remote version, stainless:
For maximum corrosion resistance: stainless steel, CF3M

Configuration:

• Via four-line local display with key operation or via four-line,
illuminated local display with touch control and guided menus ("Make-

A0013471

it-run" wizards) for applications

• Via operating tools (e.g. FieldCare)

Sensor

Prowirl D Disc (wafer version):

• Nominal diameter range: DN 15 to 150 (½ to 6")

• Materials:
Measuring tubes: stainless steel, CF3M/1.4408

Input

Measured variable Direct measured variables

Order code for "Sensor version; DSC sensor; measuring tube"

Option Description Measured variable

AA Volume; 316L; 316L Volume flow

BA Volume high-temperature; 316L; 316L

Order code for "Sensor version; DSC sensor; measuring tube"

Option Description Measured variable

CA Mass; 316L; 316L (integrated temperature measurement) • Volume flow

A0009922

• Temperature

Endress+Hauser 7

Proline Prowirl D 200

Calculated measured variables

Order code for "Sensor version; DSC sensor; measuring tube"

Option Description Measured variable

AA Volume; 316L; 316L Under constant process conditions:

BA Volume high-temperature; 316L; 316L

1) A fixed density must be entered for calculating the mass flow (Setup menu → Advanced setup submenu →

External compensation submenu → Fixed density parameter).

Order code for "Sensor version; DSC sensor; measuring tube"

Option Description Measured variable

CA Mass; 316L; 316L (integrated temperature measurement) • Corrected volume flow

• Mass flow

• Corrected volume flow

The totalized values for:

• Volume flow

• Mass flow

• Corrected volume flow

1)

• Mass flow

• Calculated saturated steam pressure

• Energy flow

• Heat flow difference

• Specific volume

• Degrees of superheat

Measuring range

The measuring range is dependent on the nominal diameter, the fluid and environmental influences.

The following specified values are the largest possible flow measuring ranges (Q

min

to Q

max

) for
each nominal diameter. Depending on the fluid properties and environmental influences, the
measuring range may be subject to additional restrictions. Additional restrictions apply to both
the lower range value and the upper range value.

Flow measuring ranges in SI units

DN
[mm]

15 0.06 to 4.9 0.3 to 25

25 0.18 to 15 0.9 to 130

40 0.45 to 37 2.3 to 310

50 0.75 to 62 3.8 to 820

80 1.7 to 140 8.5 to 1 800

100 2.9 to 240 15 to 3 200

150 6.7 to 540 33 to 7 300

Liquids
[m³/h]

Gas/steam
[m³/h]

Flow measuring ranges in US units

DN Liquids Gas/steam

[in] [ft³/min] [ft³/min]

½ 0.035 to 2.9 0.18 to 15

1 0.11 to 8.8 0.54 to 74

1½ 0.27 to 22 1.3 to 180

2 0.44 to 36 2.2 to 480

3 1 to 81 5 to 1 100

4 1.7 to 140 8.7 to 1 900

6 3.9 to 320 20 to 4 300

8 Endress+Hauser

Proline Prowirl D 200

D

i

v,Q

v [m/s] =

4 · Q [m /h]³

π · D [m]i²

·

1

3600 [s/h]

v [!/s] =

4 · Q [ /min]ft³

π · D [ft]i²

·

1

60 [s/min]

Re

=

4 · Q [m³/s] · [kg/m³]ρ

· D [m] · µ [Pa · s]π

i

Re

=

4 · Q [ft³/s] · [lbm/ft³]ρ

· D [ft] · µ [lbf · s/ft ]π

i

²

Flow velocity

A0033469

DiInternal diameter of measuring tube (corresponds to dimension K→  47)
v Velocity in mating pipe

Q Flow

The internal diameter of measuring tube Di is denoted in the dimensions as dimension
K.→  47.

Calculation of flow velocity:

A0034301

Lower range value

A restriction applies to the lower range value due to the turbulent flow profile, which increases only
in the case of Reynolds 5 000numbers. The Reynolds number is dimensionless and indicates the ratio
of the inertia force of a fluid to its viscous force when flowing and is used as a characteristic variable
for pipe flows. In the case of pipe flows with Reynolds numbers less than 5 000, periodic vortices are
no longer generated and flow rate measurement is no longer possible.

The Reynolds number is calculated as follows:

A0034291

Re Reynolds number

Q Flow

D

µ Dynamic viscosity

ρ Density

Internal diameter of measuring tube (corresponds to dimension K→  47)

i

The Reynolds number, 5 000 together with the density and viscosity of the fluid and the nominal
diameter, is used to calculate the corresponding flow rate.

Endress+Hauser 9

Proline Prowirl D 200

Q [m /h] =

Re = 5000

³

5000 [Pa· · D [m] · · s]

i

π μ

· 3600 [s/h]

4 [kg/m ]· ³ρ

Q [ /h] =

Re = 5000

!³

5000 [lbf· · D [ft] · · s/ft ]i²π μ

· 60 [s/min]

4 [lbm/ ]· !³ρ

v [m/s] = max

AmpMin

mf [m/s]

x²

50 [m] · a [m/s ]²

v [!/s] = max

AmpMin

mf [!/s]

x²

164 [!] · a [ft/s ]²

Q [m /h] =

AmpMin

³

v [m/s]

AmpMin

· · D [m]i²π

· 3600 [s/h]

4 ·

ρ [kg/m ]³
1 [kg/m ]³

Q [ /min] =

AmpMin

!³

v [!/s]

AmpMin

· · D [ft]i²π

· 60 [s/min]

4 ·

ρ [lbm/ ]#³

0.0624 [lbm/ ]!³

A0034302

Q

Re = 5000

D

i

Flow rate is dependent on the Reynolds number

Internal diameter of measuring tube (corresponds to dimension K→  47)

µ Dynamic viscosity

ρ Density

The measuring signal must have a certain minimum signal amplitude so that the signals can be
evaluated without any errors. Using the nominal diameter, the corresponding flow can also be
derived from this amplitude. The minimum signal amplitude depends on the setting for the
sensitivity of the DSC sensor (s), the steam quality (x) and the force of the vibrations present (a). The
value mf corresponds to the lowest measurable flow velocity without vibration (no wet steam) at a
density of 1 kg/m3 (0.0624 lbm/ft^3). The value mf can be set in the range from
6 to 20 m/s (1.8 to 6 ft/s) (factory setting 12 m/s (3.7 ft/s)) with the Sensitivity parameter (value
range 1 to 9, factory setting 5).

v

AmpMin

Minimum measurable flow velocity based on signal amplitude

mf Sensitivity

x Steam quality

a Vibration

10 Endress+Hauser

A0034303

A0034304

Proline Prowirl D 200

Q [m /h] = max

Low

³

Q [m /h]

min

³

Q [m /h]

Re = 5000

³

Q [m /h]

AmpMin

³

Q [! /min] = max

Low

³

Q [ /min]

min

!³

Q [ /min]

Re = 5000

!³

Q [ /min]

AmpMin

!³

Q [m /h] =

AmpMax

³

350[m/s] · · D [m]i²π

· 3600 [s/h]

4 ·

ρ [kg/m ]³
1 [kg/m ]³

Q [ /min] =

AmpMax

!³

1148[!/s] · · D [ft]i²π

· 60 [s/min]

4 ·

ρ [lbm/ ]#³

0.0624 [lbm/ ]!³

Q

v

AmpMin

D

Minimum measurable flow rate based on signal amplitude

AmpMin

Minimum measurable flow velocity based on signal amplitude

Internal diameter of measuring tube (corresponds to dimension K→  47)

i

ρ Density

The effective lower range value Q

5000

Q

Q

Q

Q

and Q

Low

min

Re = 5000

AmpMin

.

AmpMin

Effective lower range value

Minimum measurable flow rate

Flow rate is dependent on the Reynolds number

Minimum measurable flow rate based on signal amplitude

is determined using the largest of the three values Q

Low

min

, Q

Re =

A0034313

The Applicator is available for calculation purposes.

Upper range value

The measuring signal amplitude must be below a certain limit value to ensure that the signals can be
evaluated without error. This results in a maximum permitted flow rate Q

Q

D

ρ Density

Maximum measurable flow rate based on signal amplitude

AmpMax

Internal diameter of measuring tube (corresponds to dimension K→  47)

i

AmpMax

:

A0034316

Endress+Hauser 11

For gas applications, an additional restriction applies to the upper range value with regard to the
Mach number in the measuring device, which must be less than 0.3. The Mach number Ma describes
the ratio of the flow velocity v to the sound velocity c in the fluid.

Ma =

v [m/s]
c [m/s]

Ma =

v [!/s]
c [!/s]

Ma Mach number

Q [m /h] =

Ma = 0.3

³

0.3 · c [m/s] · · D [m]i²

π

4

· 3600 [s/h]

Q [ /min] =

Ma = 0.3

!³

0.3 · c [ft/s] · · D [ft]i²

π

4

· 60 [s/min]

Q [m /h] = min

High

³

Q [m /h]

max

³

Q [m /h]

AmpMax

³

Q [m /h]

Ma = 0.3

³

Q [! /min] = min

High

³

Q [ /min]

max

!³

Q [ /min]

AmpMax

!³

Q [ /min]

Ma = 0.3

!³

v

Flow velocity

c Sound velocity

The corresponding flow rate can be derived using the nominal diameter.

Proline Prowirl D 200

A0034321

Q

Ma = 0.3

Restricted upper range value is dependent on Mach number

c Sound velocity

D

i

Internal diameter of measuring tube (corresponds to dimension K→  47)

ρ Density

The effective upper range value Q
Q

AmpMax

Q

High

Q

max

Q

AmpMax

Q

Ma = 0.3

and Q

Ma=0.3

.

Effective upper range value

Maximum measurable flow rate

Maximum measurable flow rate based on signal amplitude

Restricted upper range value is dependent on Mach number

is determined using the smallest of the three values Q

High

max

A0034337

,

A0034338

For liquids, the occurrence of cavitation may also restrict the upper range value.

The Applicator is available for calculation purposes.

Operable flow range

12 Endress+Hauser

The value, which is typically up to 49: 1, may vary depending on the operating conditions (ratio
between upper range value and lower range value)

Proline Prowirl D 200

Input signal Current input

Current input 4-20 mA (passive)

Resolution 1 µA

Voltage drop Typically: 2.2 to 3 V for 3.6 to 22 mA

Maximum voltage ≤ 35 V

Possible input variables • Pressure

External measured values

To increase the accuracy of certain measured variables or to calculate the corrected volume flow, the
automation system can continuously write different measured values to the measuring device:

• Operating pressure to increase accuracy (Endress+Hauser recommends the use of a pressure
measuring device for absolute pressure, e.g. Cerabar M or Cerabar S)

• Medium temperature to increase accuracy (e.g. iTEMP)

• Reference density for calculating the corrected volume flow

• Various pressure measuring devices can be ordered as accessories from Endress+Hauser.

• If using pressure measuring devices, pay attention to outlet runs when installing external
devices→  40.

If the device does not have temperature compensation, it is recommended that external pressure
measurement values be read in so that the following measured variables can be calculated:

• Energy flow

• Mass flow

• Corrected volume flow

• Temperature

• Density

Current input

The measured values are written from the automation system to the measuring device via the
current input →  13.

HART protocol

The measured values are written from the automation system to the measuring device via the HART
protocol. The pressure transmitter must support the following protocol-specific functions:

• HART protocol

• Burst mode

Digital communication

The measured values can be written from the automation system to the measuring via:

• FOUNDATION Fieldbus

• PROFIBUS PA

Output

Output signal Current output

Current output 1 4-20 mA HART (passive)

Current output 2 4-20 mA (passive)

Resolution < 1 µA

Endress+Hauser 13

Damping Adjustable: 0.0 to 999.9 s

Assignable measured
variables

• Volume flow

• Corrected volume flow

• Mass flow

• Flow velocity

• Temperature

• Pressure

• Calculated saturated steam pressure

• Total mass flow

• Energy flow

• Heat flow difference

Pulse/frequency/switch output

Function Can be set to pulse, frequency or switch output

Version Passive, open collector

Maximum input values • DC 35 V

• 50 mA

For information on the Ex connection values →  17



Proline Prowirl D 200

Voltage drop • For ≤ 2 mA: 2 V

• For 10 mA: 8 V

Residual current ≤ 0.05 mA

Pulse output

Pulse width Adjustable: 5 to 2 000 ms

Maximum pulse rate 100 Impulse/s

Pulse value Adjustable

Assignable measured
variables

Frequency output

Output frequency Adjustable: 0 to 1 000 Hz

Damping Adjustable: 0 to 999 s

Pulse/pause ratio 1:1

Assignable measured
variables

Switch output

Switching behavior Binary, conductive or non-conductive

Switching delay Adjustable: 0 to 100 s

• Mass flow

• Volume flow

• Corrected volume flow

• Total mass flow

• Energy flow

• Heat flow difference

• Volume flow

• Corrected volume flow

• Mass flow

• Flow velocity

• Temperature

• Calculated saturated steam pressure

• Total mass flow

• Energy flow

• Heat flow difference

• Pressure

14 Endress+Hauser

Proline Prowirl D 200

Number of switching
cycles

Assignable functions • Off

Unlimited

• On

• Diagnostic behavior

• Limit value
– Volume flow
– Corrected volume flow
– Mass flow
– Flow velocity
– Temperature
– Calculated saturated steam pressure
– Total mass flow
– Energy flow
– Heat flow difference
– Pressure
– Reynolds number
– Totalizer 1-3

• Status

• Status of low flow cut off

FOUNDATION Fieldbus

FOUNDATION Fieldbus H1, IEC 61158-2, galvanically isolated

Data transfer 31.25 kbit/s

Current consumption 15 mA

Permitted supply voltage 9 to 32 V

Bus connection With integrated reverse polarity protection

Signal on alarm

PROFIBUS PA

PROFIBUS PA In accordance with EN 50170 Volume 2, IEC 61158-2 (MBP), galvanically

isolated

Data transfer 31.25 kbit/s

Current consumption 10 mA

Permitted supply voltage 9 to 32 V

Bus connection With integrated reverse polarity protection

Depending on the interface, failure information is displayed as follows:

Current output 4 to 20 mA

4 to 20 mA

Failure mode Choose from:

• 4 to 20 mA in accordance with NAMUR recommendation NE 43

• 4 to 20 mA in accordance with US

• Min. value: 3.59 mA

• Max. value: 22.5 mA

• Freely definable value between: 3.59 to 22.5 mA

• Actual value

• Last valid value

Pulse/frequency/switch output

Pulse output

Failure mode No pulses

Endress+Hauser 15

Frequency output

Failure mode Choose from:

• Actual value

• 0 Hz

• Defined value: 0 to 1 250 Hz

Switch output

Failure mode Choose from:

• Current status

• Open

• Closed

FOUNDATION Fieldbus

Proline Prowirl D 200

Status and alarm
messages

Error current FDE (Fault
Disconnection Electronic)

Diagnostics in accordance with FF-891

0 mA

PROFIBUS PA

Status and alarm
messages

Error current FDE (Fault
Disconnection Electronic)

Diagnostics in accordance with PROFIBUS PA Profile 3.02

0 mA

Local display

Plain text display With information on cause and remedial measures

Backlight Additionally for device version with SD03 local display: red lighting indicates a

device error.

Status signal as per NAMUR recommendation NE 107

Interface/protocol

• Via digital communication:
– HART protocol
– FOUNDATION Fieldbus
– PROFIBUS PA

• Via service interface
CDI service interface

Plain text display With information on cause and remedial measures

Additional information on remote operation →  64

Load

Load for current output: 0 to 500 Ω, depending on the external supply voltage of the power supply
unit

Calculation of the maximum load

Depending on the supply voltage of the power supply unit (US), the maximum load (RB) including
line resistance must be observed to ensure adequate terminal voltage at the device. In doing so,
observe the minimum terminal voltage

16 Endress+Hauser

Proline Prowirl D 200

0

100

200

300

400

500

12 14 16

18 20

22 24 26 28

U [V]

s

R [W]

b

1.1 1.21

30 32 34 36

• RB ≤ (US - U

term. min

): 0.022 A

• RB ≤ 500 Ω

 2 Load for a compact version without local operation

1 Operating range

1.1 For order code for "Output", option A "4-20 mA HART"/option B "4-20 mA HART, pulse/frequency/switch
output" with Ex i and option C "4-20 mA HART + 4-20 mA analog"

1.2 For order code for "Output", option A "4-20 mA HART"/option B "4-20 mA HART, pulse/frequency/switch
output" for non-hazardous area and Ex d

Sample calculation

Supply voltage of power supply unit:
– US = 19 V
– U

= 12 V (measuring device) + 1 V (local operation without lighting) = 13 V

term. min

Maximum load: RB ≤ (19 V - 13 V): 0.022 A = 273 Ω

The minimum terminal voltage (U

) increases if local operation is used..

Kl min

A0033472

Ex connection data Safety-related values

Type of protection Ex d

Order code for "Output" Output type Safety-related values

Option A 4-20mA HART U

Option B 4-20mA HART U

Option C 4-20mA HART

Option D 4-20mA HART U

Option E FOUNDATION Fieldbus U

Pulse/frequency/switch output U

4-20mA analog

Pulse/frequency/switch output U

4 to 20 mA current input U

nom

U

max

nom

U

max

nom

U

max

P

max

U

nom

U

max

nom

U

max

nom

U

max

P

max

nom

U

max

nom

U

max

P

max

= DC 35 V
= 250 V

= DC 35 V
= 250 V

= DC 35 V
= 250 V

1)

= 1 W

= DC 30 V
= 250 V

= DC 35 V
= 250 V

= DC 35 V
= 250 V

1)

= 1 W

= DC 35 V
= 250 V

= DC 32 V
= 250 V

= 0.88 W

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Proline Prowirl D 200

Order code for "Output" Output type Safety-related values

Pulse/frequency/switch output U

Option G PROFIBUS PA U

Pulse/frequency/switch output U

1) Internal circuit limited by Ri = 760.5 Ω

Type of protection Ex ec

Order code for "Output" Output type Safety-related values

Option A 4-20mA HART U

Option B 4-20mA HART U

Pulse/frequency/switch output U

Option C 4-20mA HART

4-20mA analog

Option D 4-20mA HART U

Pulse/frequency/switch output U

4 to 20 mA current input U

Option E FOUNDATION Fieldbus U

Pulse/frequency/switch output U

Option G PROFIBUS PA U

Pulse/frequency/switch output U

nom

U

max

P

max

nom

U

max

P

max

nom

U

max

P

max

nom

U

max

nom

U

max

nom

U

max

P

max

U

nom

U

max

nom

U

max

nom

U

max

P

max

nom

U

max

nom

U

max

P

max

nom

U

max

P

max

nom

U

max

P

max

nom

U

max

P

max

= DC 35 V

= 250 V

1)

= 1 W

= DC 32 V
= 250 V

= 0.88 W

= DC 35 V
= 250 V

1)

= 1 W

= DC 35 V
= 250 V

= DC 35 V
= 250 V

= DC 35 V
= 250 V

1)

= 1 W

= DC 30 V
= 250 V

= DC 35 V
= 250 V

= DC 35 V
= 250 V

1)

= 1 W

= DC 35 V
= 250 V

= DC 32 V
= 250 V

= 0.88 W

= DC 35 V
= 250 V

1)

= 1 W

= DC 32 V
= 250 V

= 0.88 W

= DC 35 V
= 250 V

1)

= 1 W

1) Internal circuit limited by Ri = 760.5 Ω

Type of protection XP

Order code for "Output" Output type Safety-related values

Option A 4-20mA HART U

Option B 4-20mA HART U

nom

U

max

nom

U

max

= DC 35 V
= 250 V

= DC 35 V
= 250 V

18 Endress+Hauser

Proline Prowirl D 200

Order code for "Output" Output type Safety-related values

Pulse/frequency/switch output U

Option C 4-20mA HART

4-20mA analog

Option D 4-20mA HART U

Pulse/frequency/switch output U

4 to 20 mA current input U

Option E FOUNDATION Fieldbus U

Pulse/frequency/switch output U

Option G PROFIBUS PA U

Pulse/frequency/switch output U

nom

U

max

P

max

U

nom

U

max

nom

U

max

nom

U

max

P

max

nom

U

max

nom

U

max

P

max

nom

U

max

P

max

nom

U

max

P

max

nom

U

max

P

max

= DC 35 V
= 250 V

1)

= 1 W

= DC 30 V
= 250 V

= DC 35 V
= 250 V

= DC 35 V
= 250 V

1)

= 1 W

= DC 35 V
= 250 V

= DC 32 V
= 250 V

= 0.88 W

= DC 35 V
= 250 V

1)

= 1 W

= DC 32 V
= 250 V

= 0.88 W

= DC 35 V
= 250 V

1)

= 1 W

1) Internal circuit limited by Ri = 760.5 Ω

Intrinsically safe values

Type of protection Ex ia

Order code for "Output" Output type Intrinsically safe values

Option A 4-20mA HART Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Option B 4-20mA HART Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Pulse/frequency/switch output Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 6 nF

Option C 4-20mA HART Ui = DC 30 V

4-20mA analog

Option D 4-20mA HART Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 30 nF

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

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Proline Prowirl D 200

Order code for "Output" Output type Intrinsically safe values

Pulse/frequency/switch output Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 6 nF

4 to 20 mA current input Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Option E FOUNDATION Fieldbus STANDARD

Ui = 30 V
li = 300 mA
Pi = 1.2 W
Li = 10 µH
Ci = 5 nF

Pulse/frequency/switch output Ui = 30 V

li = 300 mA
Pi = 1 W
Li = 0 µH
Ci = 6 nF

Option G PROFIBUS PA STANDARD

Ui = 30 V
li = 300 mA
Pi = 1.2 W
Li = 10 µH
Ci = 5 nF

Pulse/frequency/switch output Ui = 30 V

li = 300 mA
Pi = 1 W
Li = 0 µH
Ci = 6 nF

FISCO
Ui = 17.5 V
li = 550 mA
Pi = 5.5 W
Li = 10 µH
Ci = 5 nF

FISCO
Ui = 17.5 V
li = 550 mA
Pi = 5.5 W
Li = 10 µH
Ci = 5 nF

Type of protection Ex ic

Order code for "Output" Output type Intrinsically safe values

Option A 4-20mA HART Ui = DC 35 V

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Option B 4-20mA HART Ui = DC 35 V

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Pulse/frequency/switch output Ui = DC 35 V

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 6 nF

Option C 4-20mA HART Ui = DC 30 V

4-20mA analog

Option D 4-20mA HART Ui = DC 35 V

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 30 nF

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 5 nF

20 Endress+Hauser

Proline Prowirl D 200

Order code for "Output" Output type Intrinsically safe values

Pulse/frequency/switch output Ui = DC 35 V

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 6 nF

4 to 20 mA current input Ui = DC 35 V

Ii = n.a.
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Option E FOUNDATION Fieldbus STANDARD

Ui = 32 V
li = 300 mA
Pi = n.a.
Li = 10 µH
Ci = 5 nF

Pulse/frequency/switch output Ui = 35 V

li = 300 mA
Pi = 1 W
Li = 0 µH
Ci = 6 nF

Option G PROFIBUS PA STANDARD

Ui = 32 V
li = 300 mA
Pi = n.a.
Li = 10 µH
Ci = 5 nF

Pulse/frequency/switch output Ui = 35 V

li = 300 mA
Pi = 1 W
Li = 0 µH
Ci = 6 nF

FISCO
Ui = 17.5 V
li = n.a.
Pi = n.a.
Li = 10 µH
Ci = 5 nF

FISCO
Ui = 17.5 V
li = n.a.
Pi = n.a.
Li = 10 µH
Ci = 5 nF

Type of protection IS

Order code for "Output" Output type Intrinsically safe values

Option A 4-20mA HART Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Option B 4-20mA HART Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Pulse/frequency/switch output Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 6 nF

Option C 4-20mA HART Ui = DC 30 V

4-20mA analog

Option D 4-20mA HART Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 30 nF

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

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Proline Prowirl D 200

Order code for "Output" Output type Intrinsically safe values

Pulse/frequency/switch output Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 6 nF

4 to 20 mA current input Ui = DC 30 V

Ii = 300 mA
Pi = 1 W
Li = 0 μH
Ci = 5 nF

Option E FOUNDATION Fieldbus STANDARD

Ui = 30 V
li = 300 mA
Pi = 1.2 W
Li = 10 µH
Ci = 5 nF

Pulse/frequency/switch output Ui = 30 V

li = 300 mA
Pi = 1 W
Li = 0 µH
Ci = 6 nF

Option G PROFIBUS PA STANDARD

Ui = 30 V
li = 300 mA
Pi = 1.2 W
Li = 10 µH
Ci = 5 nF

Pulse/frequency/switch output Ui = 30 V

li = 300 mA
Pi = 1 W
Li = 0 µH
Ci = 6 nF

FISCO
Ui = 17.5 V
li = 550 mA
Pi = 5.5 W
Li = 10 µH
Ci = 5 nF

FISCO
Ui = 17.5 V
li = 550 mA
Pi = 5.5 W
Li = 10 µH
Ci = 5 nF

Low flow cut off

Galvanic isolation

The switch points for low flow cut off are preset and can be configured.

All inputs and outputs are galvanically isolated from one another.

Protocol-specific data HART

Manufacturer ID 0x11

Device type ID 0x0038

HART protocol revision 7

Device description files
(DTM, DD)

HART load • Min. 250 Ω

System integration For information on system integration, see Operating Instructions.→  75

FOUNDATION Fieldbus

Manufacturer ID 0x452B48

Ident number 0x1038

Device revision 2

Information and files under:

www.endress.com

• Max. 500 Ω

• Measured variables via HART protocol

• Burst Mode functionality

22 Endress+Hauser

Proline Prowirl D 200

DD revision Information and files under:

CFF revision

Device Tester Version (ITK
version)

ITK Test Campaign Number Information:

Link Master capability (LAS) Yes

Choice of "Link Master" and
"Basic Device"

Node address Factory setting: 247 (0xF7)

Supported functions The following methods are supported:

Virtual Communication Relationships (VCRs)

Number of VCRs 44

Number of link objects in VFD 50

Permanent entries 1

Client VCRs 0

Server VCRs 10

Source VCRs 43

Sink VCRs 0

Subscriber VCRs 43

Publisher VCRs 43

Device Link Capabilities

Slot time 4

Min. delay between PDU 8

Max. response delay Min. 5

System integration For information on system integration, see Operating Instructions.→  75

• www.endress.com

• www.fieldbus.org

6.2.0

• www.endress.com

• www.fieldbus.org

Yes
Factory setting: Basic Device

• Restart

• ENP Restart

• Diagnostic

• Read events

• Read trend data

• Cyclic data transmission

• Description of the modules

• Execution times

• Methods

PROFIBUS PA

Manufacturer ID 0x11

Ident number 0x1564

Profile version 3.02

Device description files (GSD,
DTM, DD)

Information and files under:

• www.endress.com

• www.profibus.org

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