Poli-propilen CEVKI i Spojnici

- -

PP-R PIPES PP-R PIPES

- &

for hot & cold water

and heating systems

PP-R PIPES

8077 - ()

,

8078 - ()

,

16962 -

() ,

1 2

1988 -

2207 -

APPLIED NORMS

DIN 8077 - Polypropylene (PP) pipes'

dimensions

DIN 8078 - Polypropylene (PP) pipes'

general quality requirements

and testing

DIN 16962 Pipe joints and elements for -

polypropylene (PP) pressure

pipelines, type 1 and 2;

DIN 1988 Drinking water line installation -

DVS2207 Welding regulation for plastic -

pipes

,

50.

ADVANTAGES

Long duration, more than 50 years

good flexibility

Resistance on low temperatures

nigh resistance on heat and

pressure

Resistance on surface electric

power

Friction and corrosion resistance

Resistance at earthquakes

High sound and thermic isolation

20

Mechanical and thermal properties of

Polypropilene Random Copolimer at C

Properties

, 23

Density, at 23C

, ()

Melt flow index, (MFI)

MFI 190C/5kg

MFI 230C/2,16kg

na 23C

Thermal conductivity at 23C

Coefficient of linear thermal expansion

(23)

50mm/min.

100 mm/min.

Elongation at break

at 50mm/min.

at 100mm/min.

Modul of elasticity

Tensile stress at yeald

Tensile strenght at break

Testing methods

ISO R 11 83

ISO 1133

ISO 1133

DIN 52652

DIN 53752

ISO R 527

ISO 178

ISO R 527

ISO R 527

Unit

3

g/cm

g/10min.

g/10min.

W/mK

-1

K

%

2

N/mm

2

N/mm

2

N/mm

Value

0,9

0,7

0,50

0,2 - 0,4

-4

1,5 x 10

>500

>500

800

21

40

()

(-)

(-)

95,

.

, ,

.

-35.

:

RAW MATERIAL

Polypropylene Random Copolimer

(PP-r Type 3)

Drinking water installation

Sanitary installation

Under floor heating

Heating

Industry

Polypropylene Random Copolimer

(PP-r type 3) is widely used in hot water floor -

and radiator heating systems as well. Thermic

and chemical resistance of the material

allowed application in the industry for transport

of pressurized air, gas, liquid human food and

similar.

Stable at low temperatures up to -35C. The

common this material can be

found in:

PP-R pipes & fittings

- &


- &

www.konti-hidroplast.com.mkPP-R pipes & fittings www.konti-hidroplast.com.mk - & 2 3

8078

Operating life according DIN 8078

bar / Pressure bar

/ Series S

Standard dimension rate SDR

3,2

7,4

2,5

6

2

5

31,2

29,1

28,2

27,1

26,2

25,5

26,4

24,5

23,7

22,7

22,0

21,3

22,2

20,5

19,8

18,9

18,2

17,6

18,5

17,0

16,4

15,6

14,6

12,2

15,2

13,9

13,4

11,6

9,6

8,0

12,5

11,4

10,0

7,8

6,5

10,1

8,3

6,9

5,4

4,5

8,1

5,8

4,8

3,8

5,5

3,6

(3,0)

39,3

36,6

35,5

34,1

33,1

32,1

33,3

30,8

29,8

28,6

27,7

26,8

27,9

25,8

24,9

23,8

23,0

22,2

23,2

21,4

20,6

19,6

18,4

15,4

19,2

17,6

16,9

14,6

12,2

10,1

15,7

14,3

12,5

9,9

8,2

12,7

10,4

8,7

6,8

5,7

10,2

7,3

6,1

4,8

6,9

4,5

(3,7)

49,5

46,1

44,7

42,9

41,6

40,4

41,9

38,8

37,6

36,0

34,9

33,7

35,2

32,5

31,4

30,0

29,0

28,0

29,3

26,9

26,0

24,7

23,2

19,4

24,2

22,1

21,3

18,4

15,

12,8

19,8

18,0

15,8

12,4

10,4

16,0

13,1

10,9

8,6

7,2

12,9

9,3

7,7

6,1

8,7

5,7

(4,7)

Pressure lost

The pressure lost per meter as a

function of the flow can be seen in the

following diagram

0.1 0.2 0.30.40.5 1 2 3 4 5 10 20 30 50 100

0.0

0.02

0.03

0.04

0.05

0.1

0.2

0.4

0.3

0.5

1.0

2.0

3.0

4.0

5.0

10

Pressure lostmWS/100m*

*) 1m = 0,1bar

1meter head = 0,1bar

Flo

w c

ap

ac

ity

l / s

3636

5050

4040

3232

2525

2020

1616

V =

0.2

V =

0.2

V =

0.3

V =

0.3

4

V= 0

.

4

V= 0

.

V =

0.5

V =

0.5

6

V= 0

.

6

V= 0

.

V =

0.7

V =

0.7

8

V= 0

.

8

V= 0

.V

= 0

9.

V =

09.

0

V= 1

.

0

V= 1

.

2

V= 1

.

2

V= 1

.V

= 1

.4

V =

1.4

6

V=

1.

6

V=

1.

8

V= 1

.

8

V= 1

.

0

V=

2.

0

V=

2.

5

V= 2

.

5

V= 2

.

0

V= 3

.

0

V= 3

.

36

50

40

32

25

20

16

V =

0.2

V =

0.3

4

V= 0

.

V =

0.5

6

V= 0

.

V =

0.7

8

V= 0

.V

= 0

9.

0

V= 1

.

2

V= 1

.V

= 1

.4

6

V=

1.

8

V= 1

.

0

V=

2.

5

V= 2

.

0

V= 3

.


- &


C

Temperature

C

10

20

30

40

50

60

70

80

95

12,5

26

/

Operation

life/years

20

41

16

33

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

1

5

10

25

50

1

5

10

25

1

5

a

(10)

4,9

4,6

4,4

4,2

4,1

4,0

4,1

3,8

3,7

3,6

3,4

3,3

3,5

3,2

3,1

3,0

2,9

2,8

2,9

2,6

2,6

2,4

2,3

1,9

2,4

2,2

2,1

1,8

1,5

1,2

1,9

1,8

1,5

1,2

1,0

1,6

1,3

1,0

0,8

0,7

1,2

0,9

0,7

0,6

0,8

0,5

(0,4)

6,2

5,8

5,6

5,4

5,2

5,0

5,2

4,8

4,7

4,5

4,3

4,2

4,4

4,0

3,9

3,7

3,6

3,5

3,6

3,3

3,2

3,1

2,9

2,4

3,0

2,7

2,6

2,3

1,9

1,6

2,4

2,2

1,9

1,5

1,3

2,0

1,6

1,3

1,0

0,9

1,6

1,1

0,9

0,7

1,0

0,7

(0,6)

7,8

7,3

7,0

6,8

6,6

6,4

6,6

6,1

5,9

5,7

5,5

5,3

5,5

5,1

4,9

4,7

4,5

4,4

4,6

4,2

4,1

3,9

3,6

3,0

3,8

3,5

3,3

2,9

2,4

2,0

3,1

2,8

2,5

1,9

1,6

2,5

2,0

1,7

1,3

1,1

2,0

1,4

1,2

0,9

1,3

0,9

(0,7)

8,3

17,6

11,8

11,0

10,7

10,2

9,9

9,6

10,0

9,3

9,0

8,6

8,3

8,0

8,4

7,7

7,5

7,1

6,9

6,7

7,0

6,4

6,2

5,9

5,5

4,6

5,8

5,3

5,1

4,4

3,6

3,0

4,7

4,3

3,7

2,9

2,4

3,8

3,1

2,6

2,0

1,7

3,0

2,2

1,8

1,4

2,0

1,3

(1,1)

8

17

12,4

11,5

11,2

10,7

10,4

10,1

10,5

9,7

9,4

9,0

8,7

8,4

8,8

8,1

7,8

7,5

7,2

7,0

7,3

6,7

6,5

6,2

5,8

4,8

6,0

5,5

5,3

4,6

3,8

3,2

4,9

4,5

3,9

3,1

2,6

4,0

3,3

2,7

2,1

1,8

3,2

2,3

1,9

1,5

2,1

1,4

(1,2)

5

11

19,7

18,3

17,8

17,1

16,5

16,0

16,6

15,4

14,9

14,3

13,8

13,4

14,0

12,9

12,5

11,9

11,5

11,1

11,6

10,7

10,3

9,8

9,2

7,7

9,6

8,8

8,4

7,3

6,1

5,1

7,9

7,1

6,3

4,9

4,1

6,4

5,2

4,3

3,4

2,8

5,1

3,7

3,0

2,4

3,4

2,2

(1,9)

4

9

24,8

23,1

22,4

21,5

20,8

20,2

21,0

19,4

18,8

18,0

17,4

16,9

17,6

16,2

15,7

15,0

14,5

14,0

14,6

13,5

13,0

12,4

11,6

9,7

12,1

11,1

10,6

9,2

7,7

6,4

9,9

9,0

7,9

6,2

5,2

8,0

6,5

5,5

4,3

3,6

6,4

4,6

3,8

3,0

4,3

2,8

(2,3)

8078

Operating life according DIN 8078

bar / Pressure bar

/ Series S

Standard dimension rate SDR

3,2

7,4

2,5

6

2

5

31,2

29,1

28,2

27,1

26,2

25,5

26,4

24,5

23,7

22,7

22,0

21,3

22,2

20,5

19,8

18,9

18,2

17,6

18,5

17,0

16,4

15,6

14,6

12,2

15,2

13,9

13,4

11,6

9,6

8,0

12,5

11,4

10,0

7,8

6,5

10,1

8,3

6,9

5,4

4,5

8,1

5,8

4,8

3,8

5,5

3,6

(3,0)

39,3

36,6

35,5

34,1

33,1

32,1

33,3

30,8

29,8

28,6

27,7

26,8

27,9

25,8

24,9

23,8

23,0

22,2

23,2

21,4

20,6

19,6

18,4

15,4

19,2

17,6

16,9

14,6

12,2

10,1

15,7

14,3

12,5

9,9

8,2

12,7

10,4

8,7

6,8

5,7

10,2

7,3

6,1

4,8

6,9

4,5

(3,7)

49,5

46,1

44,7

42,9

41,6

40,4

41,9

38,8

37,6

36,0

34,9

33,7

35,2

32,5

31,4

30,0

29,0

28,0

29,3

26,9

26,0

24,7

23,2

19,4

24,2

22,1

21,3

18,4

15,

12,8

19,8

18,0

15,8

12,4

10,4

16,0

13,1

10,9

8,6

7,2

12,9

9,3

7,7

6,1

8,7

5,7

(4,7)

Pressure lost

The pressure lost per meter as a

function of the flow can be seen in the

following diagram

0.1 0.2 0.30.40.5 1 2 3 4 5 10 20 30 50 100

0.0

0.02

0.03

0.04

0.05

0.1

0.2

0.4

0.3

0.5

1.0

2.0

3.0

4.0

5.0

10

Pressure lostmWS/100m*

*) 1m = 0,1bar

1meter head = 0,1bar

Flo

w c

ap

ac

ity

l / s

6363

0505

4040

3232

5252

2020

1616

2

V= 0

.

2

V= 0

.

V =

0.3

V =

0.3

4

V= 0

.

4

V= 0

.

V =

0.5

V =

0.5

6

V= 0

.

6

V= 0

.

V =

0.7

V =

0.7

8

V= 0

.

8

V= 0

.V

= 0

9.

V =

09.

0

V=

1.

0

V=

1.

2

V= 1

.

2

V= 1

.V

= 1

.4

V =

1.4

1

6

V=

.

16

V=

.

8

V=

1.

8

V=

1.

0

V=

2.

0

V=

2.

5

V= 2

.

5

V= 2

.

0

V= 3

.

0

V= 3

.

63

05

40

32

52

20

16

2

V= 0

.

V =

0.3

4

V= 0

.

V =

0.5

6

V= 0

.

V =

0.7

8

V= 0

.V

= 0

9.

0

V=

1.

2

V= 1

.V

= 1

.4

16

V=

.

8

V=

1.

0

V=

2.

5

V= 2

.

0

V= 3

.


- &


C

Temperature

C

10

20

30

40

50

60

70

80

95

12,5

26

/

Operation

life/years

20

41

16

33

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

100

1

5

10

25

50

1

5

10

25

50

1

5

10

25

1

5

a

(10)

4,9

4,6

4,4

4,2

4,1

4,0

4,1

3,8

3,7

3,6

3,4

3,3

3,5

3,2

3,1

3,0

2,9

2,8

2,9

2,6

2,6

2,4

2,3

1,9

2,4

2,2

2,1

1,8

1,5

1,2

1,9

1,8

1,5

1,2

1,0

1,6

1,3

1,0

0,8

0,7

1,2

0,9

0,7

0,6

0,8

0,5

(0,4)

6,2

5,8

5,6

5,4

5,2

5,0

5,2

4,8

4,7

4,5

4,3

4,2

4,4

4,0

3,9

3,7

3,6

3,5

3,6

3,3

3,2

3,1

2,9

2,4

3,0

2,7

2,6

2,3

1,9

1,6

2,4

2,2

1,9

1,5

1,3

2,0

1,6

1,3

1,0

0,9

1,6

1,1

0,9

0,7

1,0

0,7

(0,6)

7,8

7,3

7,0

6,8

6,6

6,4

6,6

6,1

5,9

5,7

5,5

5,3

5,5

5,1

4,9

4,7

4,5

4,4

4,6

4,2

4,1

3,9

3,6

3,0

3,8

3,5

3,3

2,9

2,4

2,0

3,1

2,8

2,5

1,9

1,6

2,5

2,0

1,7

1,3

1,1

2,0

1,4

1,2

0,9

1,3

0,9

(0,7)

8,3

17,6

11,8

11,0

10,7

10,2

9,9

9,6

10,0

9,3

9,0

8,6

8,3

8,0

8,4

7,7

7,5

7,1

6,9

6,7

7,0

6,4

6,2

5,9

5,5

4,6

5,8

5,3

5,1

4,4

3,6

3,0

4,7

4,3

3,7

2,9

2,4

3,8

3,1

2,6

2,0

1,7

3,0

2,2

1,8

1,4

2,0

1,3

(1,1)

8

17

12,4

11,5

11,2

10,7

10,4

10,1

10,5

9,7

9,4

9,0

8,7

8,4

8,8

8,1

7,8

7,5

7,2

7,0

7,3

6,7

6,5

6,2

5,8

4,8

6,0

5,5

5,3

4,6

3,8

3,2

4,9

4,5

3,9

3,1

2,6

4,0

3,3

2,7

2,1

1,8

3,2

2,3

1,9

1,5

2,1

1,4

(1,2)

5

11

19,7

18,3

17,8

17,1

16,5

16,0

16,6

15,4

14,9

14,3

13,8

13,4

14,0

12,9

12,5

11,9

11,5

11,1

11,6

10,7

10,3

9,8

9,2

7,7

9,6

8,8

8,4

7,3

6,1

5,1

7,9

7,1

6,3

4,9

4,1

6,4

5,2

4,3

3,4

2,8

5,1

3,7

3,0

2,4

3,4

2,2

(1,9)

4

9

24,8

23,1

22,4

21,5

20,8

20,2

21,0

19,4

18,8

18,0

17,4

16,9

17,6

16,2

15,7

15,0

14,5

14,0

14,6

13,5

13,0

12,4

11,6

9,7

12,1

11,1

10,6

9,2

7,7

6,4

9,9

9,0

7,9

6,2

5,2

8,0

6,5

5,5

4,3

3,6

6,4

4,6

3,8

3,0

4,3

2,8

(2,3)

( . ,

.)

.

PPR :-1

= 1,5 x 10 (K)

.

.

Thermal expansion of the pipe

Elongation values estimating

Pipelines in interiors

Special attention is given to the

appearances and to the stability of pipeline

when laid in interiors (and basement sand and

boiler rooms etc.). The elongation coefficient

of PP-R pipe amounts as follows-1

= 1,5 x 10 (K)

The elongation value calculation ca

be supported by other examples

that follow.

Difference between working

temperature and the temperature

when laying the pipe appears to be

very important in calculating the elongation

value.

Known and requested values

:

PP-R

Calculation is done upon the following

equations:

Material PP-R pipes

l= x L x t =.015mm/mC

l=0.15mm/mC x 10mm x 25C

l=37.5mm

-

.

-

L

.

-

L.

.

Compensation elongation

Holders are very easily mounted and

fixed on the PP-R pipes as well as on

the metal ones. At installations laid in interiors,

there must be taken in view

the L elongation at the very beginning

of pipeline planning. Leading the pipeline

should be in such a way that it could allow

pipe elongation and pipe free movement in

the scope of calculated elongation values L.

Only two simple possibilities could

be taken in view regarding the compensation

change in length. They should meet the PP-R

elements standards.

Directional changing

lastic ("U") bend

PP-R

.

-

.

,

()

.

:

Compensators

Direction changing

All the types of metal pipeline compensators

cannot be recommended for the PP-R

pipelines.

In most cases direction changing of

the pipeline could be used in elongation

changing. Distance to the fixing holder

(clamp), i.e. the console length can easily be

calculated using the following equation.

Example calculation:

Console length

Known and values required

KT

LK

FT

L

Definition

. tR tm t=tR-tm

Temperature difference

Starting temperature

Working temperature

Initial pipe length

. -

Coefficient of expansion

(mm)

Length variation (mm)

Vrednost

Value

?

0.15

10

50

25

25

mm

mm/mC

m

C

C

C

.

Unit

Designation

L

L

tr

tm

t

Definition

Temperature difference

Outside diameter of pipe

. -

Constant value for PP-R

Console length

Value

?

20

32

20

mm

/

mm

mm

.

Unit

Designation

LK

K

D

t

:

Calculation of the console length is done upon

the following equations:

LK=K D x t LK = 20 32 mm x 20mm LK = 506.0mm

LK

506mm.

:

-

-

Console length LK (according above

calculation example) amounts 506mm.

Where:

KT - sliding point

FT - fixing point


- &


L

KT KT

LK

FT

L

L L

SA

()

,

().

:

()

Elastic ("U") bend

If the elongation compensation at

direction changing is not possible, an elastic

("U") bend is necessary to be performed.

Calculation example:

Elastic ("U") bend

Known and values required

:

The elastic ("U") bend width can be

calculated by the following equations:

Amin=2 x l + SA Amin = 2 x 20 mm + 100mm Amin = 140mm

140mm., :

KT-

-

In that case the elastic ("U") bend width is

minimum 140mm. , where:

KT - sliding point

FT - fixing point

Definition

Safe length

Elongation

inimum ("U") bend width

Vrednost

Value

?

20

100

Designation

Amin

l

SA

.

Unit

mm

mm

mm

-

-

-

-

.

.

-

.

-

,

.

:

Supports distance

The way and frequency of PP-R

pipeline fixing depends among other things,

of the elongation extent caused by the

temperature differences.

The fixing support divides, the pipeline

in many single sections where the elongation

possibility is enabled.

Sliding supports lead the pipeline

inside each single section.

Support distance depends on the

conditions the pipeline is used, pipe-material

and the weight of the pipeline itself, including

the filling (carrying) weight of the pipeline itself.

In practice, most useful distances appeared to

be as follows:

0

20

30

40

50

60

70


- &

40

140

100

100

90

90

85

80

75

cm

Distance of the support in cm

D(mm) PN 20bar

Diameter of pipe D(mm) PN 20bar

25

105

75

75

70

70

65

60

55

20

85

60

60

60

60

60

55

5080

120

120

110

110

100

95

90

50

165

63

190

140

140

130

130

115

105

100

75

205

150

150

140

140

125

115

110

90

225

165

165

150

150

135

112

115

110

245

180

180

165

165

150

140

125

125

265

195

195

180

180

165

150

140

140

285

210

210

195

195

180

165

150

160

310

225

220

210

210

195

180

165

180

335

245

245

225

225

210

195

180

200

365

265

265

245

245

225

210

195

-

,

.

.

.

0C

.

.

-

.

. -

-

6 .

Transporting and stocking

PP-R pipes can be stocked at any

outdoors temperatures, but not direct

exposure on sunlight. At stocking, they should

always be placed all along their entire length

on the floor. Any kind of pipe-benching should

be avoided during transport and stocking.

When temperatures below 0C pipes

could suffer and be damaged by strong

strokes. Because of this careful manipulating at

low temperatures is recommended.

With no difference that PP-R pipes are

high resistant, it is recommended a careful

handling them. UV-rays affect all the high-

contents polymer-plastic materials. There is a

UV-stabilizer which enables outside stocking for

6 months of the PP-pipes and their accessories.


L

KT KT

LK

FT

L

L L

SA

Differences in

temperature

t (C)

32

125

90

90

80

80

75

70

65


- &

.

,

.

Instalation

Semi-fusion welding

Welding is carried out using welding

device and simultaneous heating of the two

elements to be connected. When the welding

temperature is reached, elements should be

affixed to each other resulting in absolutely

sealed connection.

(

) .

.

.

Performance

Pipes and the other attaching parts

should with no delay and no axial

displacement be inserted into the heating

elements up to the boundary marker.

After heating time is over, heated pipe

and attaching part are taken out of the

apparatus and should immediately be

attached to each other with not any moving

them.

It is very important to respect the

recommended depth of insertion.

.

.

-

.

, :

260 8.

Preparing

Pipes outside have to be thoroughly

clean and smooth. Face edges of the pipes

have to be cut under right angle. Prior to

welding make sure the device is in a good

condition and that the welding temperature

has been reached.

Recommended parameters for

welding, if the manufacturer don't recomend

others: Welding temperature of 260C, and

heating time 8sec.

-

-

. -

.

Avoiding above mentioned installation

procedure can lead up to bad connection of

pipes and leakage at the joint spot after the

installation. That is why the installater has to be

trained for this type of pipe welding

.

e

.

.

E-,

.

,

.

.

.

Electrofusion- welding

The electric muff is first of all used in

repairing and welding of the existing facilities.

The procedure is easy and simple if

some simple rules are respected. Jointing parts

have to be axially directed.

After attaching them into E-joining

pipe (muff) they are to be connected to the

welding apparatus.

Further steps of the procedure go on

automatically except that the connection

performed should not be loaded unless it gets

cool.

-

: -

:

: DIN 8077/8078

:

PP R - Pipe

Material: PP-R

Color: blue or white

Dimensions: DIN 8077/8078

Execution: hot water

D

16

20

25

32

40

50

63

75

90

110

125

140

160

180

200

e/mm

1,80

1,90

2,30

2,90

3,70

4,60

5,80

6,80

8,20

10,00

11,40

12,70

14,60

16,40

18,20

kg/m

0,08

0,11

0,16

0,26

0,41

0,62

1,00

1,41

2,03

3,00

3,91

4,87

6,38

8,07

9,95

/mm

2,20

2,80

3,50

4,40

5,50

6,90

8,60

10,30

12,30

15,10

17,10

19,20

21,90

24,60

27,40

kg/m

0,09

0,15

0,23

0,37

0,58

0,89

1,40

2,00

2,86

4,29

5,53

6,95

9,06

11,45

14,17

e/mm

2,70

3,40

4,20

5,40

6,70

8,40

10,50

12,50

15,00

18,40

20,80

23,30

26,60

29,00

33,20

kg/m

0,11

0,17

0,26

0,43

0,67

1,04

1,65

2,34

3,34

5,04

6,47

8,11

10,66

13,17

16,65

PN10 SDR11 s=5 PN16 SDR7,4 s=3,2 PN20 SDR6 s=2,5

D - , mm

- , mm

kg/m -

D - nominal diameter, mm

e- wall thickness, mm

kg/m - meter lenght weight

www.konti-hidroplast.com.mkPP-R pipes & fittings www.konti-hidroplast.com.mk - & 1110


- &


PP Union (welding at both ends)

PN 20

PP Plug

PN 20

PP Valve

PN 20

PP Bracket

PN 20

()

:

:

* 20-40mm

Welding machine

(complete welding case)

Material: Teflon

Execution: welding of PP pipes

*Included welding dies 20-40mm and

pipe cuter for PP pipes

/ Welding dies

/ Pipe cuters

( )

PP Valve (chrome plated)

PN 20

PP Surmounting curve

PN 20

PP Cross

PN 20

PP Cap

PN 20

-

PP Threaded female union tee

PN 20

Dn

(mm)

20

25

25

32

1/2"

1/2"

3/4"

1"

Dn

Dn insert

-

PP Threaded male union tee

PN 20

1/2"

3/4"

1"

Dn

Dn insert

Dn

(mm)

20

25

32

Dn (mm)

20

25

32

40

50

63

75

90

Dn

(mm)

20

25

32

1/2"

3/4"

1"

F

F insert

Dn

(mm)

20

25

32

40

50

63

Dn

(mm)

20

25

32

40

50

Dn (mm)

20

25

32

L (mm)

395

395

395

Dn

(mm)

20

25

20

25

32

40

50

63

75

Dn

(mm)

Dn

(mm)

20

25

32

Dn

(mm)

20

25

32

40

50

63

75

Dn

(mm)

20 - 40

PP Union (male thread)

PN 20

PP Threaded male elbow

PN 20

Dn

(mm)

20

25

32

1/2"

3/4"

1"

Dn

Dn insert

: -

:

: DIN 8077/8078

:

Material: PP-R

Color: blue or white

Dimensions: DIN 8077/8078

Execution: hot water

PP Reducer

PN 20

Dn D1

(mm)

25

32

32

40

40

40

50

50

50

50

63

63

20

20

25

20

25

32

20

25

32

40

25

32

Dn D2

(mm)

PN 20

Dn

(mm)

20

20

20

25

25

25

32

32

32

40

50

63

75

1/2"

2/4"

1"

1/2"

3/4"

1"

1/2"

3/4"

1"

1 1/4"

1 1/2"

2"

2 1/2"

Dn

Dn insert

PP Union (female thread) 45 PP Elbow 45

PN 20

Dn (mm)

20

25

32

40

50

63

75

90

PN 20

Dn (mm)

20

25

32

40

50

63

75

90

PP Coupling

PP Tee reducer

PN 20

Dn D1

(mm)

25

32

32

40

40

40

50

5050

50

50

63

63

63

63

75

75

75

75

Dn D2

(mm)

40

25

32

40

50

32

40

50

63

20

20

25

20

25

32

20

25

32

PP Tee

PN 20

Dn (mm)

20

25

32

40

50

63

75

90

PN 20

PP Elbow for wall mounting

90 PP Elbow 90

PN 20

Dn (mm)

20

25

32

40

50

63

75

90

90

PP Elbow 90 with female tread

PN 20

Dn

(mm)

20

25

25

32

1/2"

3/4"

1/2"

1"

F

F insert

Dn

(mm)

20

20

20

25

25

25

32

32

32

40

50

63

75

1/2"

2/4"

1"

1/2"

3/4"

1"

1/2"

3/4"

1"

1 1/4"

1 1/2"

2"

2 1/2"

Dn

Dn insert Dn

(mm)

20

Dn

Dn insert

1/2"


- &


Ethylene oxide

Fatty acid

Fatty acids>C4

Fermentation malt

Fertilizer salts

Film bath

Fluorine

Fluosilicic acid

Formaldehyde

Formic acid

Formic acid

Fructose

Fruit wuices

Furfuryl alcohol

Gelatine

Glucose

Glycerine

Glycolic acid

Grease

HCL/HNO3

Heptane

Hexane

Hexanetriol (1,2,6)

Hydrazine hudrate

Hydrobromine acid

Hydrochloric acid

Hydrochloric acid

Hydrofluoric acid

Hydrofluoric acid

Hydrogen

Hydrogen chloride

Hydrgen proxide

Hydrosyanic acid

Hydroxylammonium sulfate

Iodine solution

Isooctane

Isopropyl

Kerosen

Lastic acid

Lanolin

Lead acetate

Linseed oil

Lubricating oils

Magnesium chloride

Magnesium hydrocarbonate

Magnesium salts

Magnesium sulphate

Menthol

Methanol

Methanol

Methyl acetate

Methyl amine

Methyl bromide

Methyl chloride

Methyl ethyl ketone

Mercury

Mercury salts

Milk

Mineral water

Molasses

Motor oil

Natural gas

Nickel salts

Nitric acid

Nitric acid

Nitric acid

2-Nitrotoluen

Nitroyus gases

Oleum(H2SO4+SO3)

Olive oil

Oxalic acid

Oxygen

Ozone

Paraffin emulsions

Paraffin oil

Perchloric acid

Perchloroethylene

Petroleum

Petroleum ether

Phenol

Phenol

Phenyl hydrazine

Phenyl hydrazine hydrochloride

Phosgene

Phosphates

Phosphoric acid

Phosphorus oxychloride

Phthalic acid

Photo emulsions

Photo fixing baths

Picric acid

Patassium bichromate

Potassium bromate

Potassium bromide

Potassium carbonate

Potassium chlorate

Potassium chloride

Potassium chromate

Potassium cyanide

Potassium fluoride

Potassium hydrogen carbonate

Potassium hydroxide

Potassium iodide

Potassium nitrate

Potassium perchlorate

Potassium permanganate

Potassium persulfate

Potassium sulfate

Propane, gas

Propanol (I)

Propargyl alcohol

Propionic acid

Propylene glycol

Pyridin

Seawater, brine

Silicic acid

Silico fluoric acid

Silicone emulsion

Silicone oil

Silver nitrate

Silver salts

Sodium acetate

Sodium benzoate

Sodium bicarbonate

Sodium bisulphate

Sodium bisulphite

Sodium carbonate

Sodium chlorate

Sodium chloride

Sodium chlorite

Sodium chlorite

Sodium chromate

Sodium hydrox

Sodium hypochloride

Sodium hypochlorite

Sodium hypochlorite

Sodium nitrate

Sodium silicate

Sodium sulphate

Sodium sulphide

Sodium sulphide

Sodium thiosulphate

Sodium triphosphate

Sayabean oil

Strach solution

Strach syrup

Sulphurdioxide

Sulphurdioxide, gas

Sulphurdioxide, liquid

Sulphuric acid

Sulphuric acid

Sulphuric acid

Sulphuric acid

Sulphuric acid

Sulphur trioxide

Tar oil

Tetrachloroethanone

Tetrachloroethylene

Tetrachloromethane

Tetraethyl lead

Tetrahydrofurane

Tetrahydronaphatalene

Thionyl chloride

Tin (II) chloride

Tin (IV) chloride

Toulene

Trichloroethylene

Trichloro asetic acid

Tricresyl phosphate

Triethanolamin

Wine vinegar

Xylene

Yeast

Zink

Trioctyl phosphate

Urea

Vaseline oil

Vinegar

Vinyl acetate

Washing powder

Waste gases

containing hydrogen fluoride

Water, pure

Wax

Wine acid

Wines

Agresive MediaConce-

tration

Chemical Resistance

20C 60C 100CAgresive Media

Conce-

tration

Chemical Resistance


Conce-

tration

Chemical Resistance

20C 60C 100C

TR

20%

TR

H

GL

H

TR

32%

40%

10%

85%

L

H

TR

L

20%

TR

30%

H

75%/25%

TR

TR

TR

TR

48%

20%

20-36%

40%

70%

TR

TR

30%

TR

12%

H

TR

TR

H

90%

H

GL

H

TR

GL

GL

GL

GL

TR

TR

5%

TR

32%

TR

TR

TR

TR

GL

H

H

H

TR

TR

GL

10%

10-50%

>50%

TR

All

TR

TR

GL

TR

0,5ppm

H

TR

20%

TR

TR

TR

5%

90%

TR

TR

TR

GL

85%

TR

GL

H

H

GL

GL

10%

GL

GL

GL

GL

GL

L

GL

GL

50%

GL

GL

10%

GL

GL

GL

TR

TR

7%

>50%

TR

TR

H

All

32%

H

TR

GL

GL

GL

35%

GL

GL

L

50%

GL

VL

VL

2-20%

GL

60%

20%

10%

20%

GL

L

GL

GL

40%

GL

GL

TR

All

All

All

TR

All

10%

10-80%

80%-TR

All

All

H

TR

TR

TR

TR

TR

TR

TR

GL

GL

TR

TR

50%

TR

L

H

TR

All

GL

TR

GL

TR

H

TR

VL

Rare

H

H

10%

H

Acetaldehyde

Acetaldehyde

Acetephenon

Acetic acid anhydride

Acetic acid, diluted

Acetic acid, diluted

Acetone

Acid-acetanhydride

Acrilonitrile

Adipic acid

Air

Alaune Me - Me III sulphate

Allyl alcohol, diluted

Alum

Aluminium chloride

Aluminium sulphate

Amber acid

2-Amino-ethanol

Ammonia, gas

Ammonia, liquid

Anilin

Ammonia, water

Ammonium acetate

Ammonium carbonate

Ammonium chloride

Ammonium floride

Ammonium nitrate

Ammonium phosphate

Ammonium sulphate

Amyl acetate

Amyl alcohol

Aniline

Anilin hydrochloride

Anon

Anon (Cyclohexanone)

Antifreeze

Antimony trichloride

Apple acid /

Apple acid /

Apple wine (ortho)

Aqua regia

Arsenic acid

Arsenic acid

Barium hydroxide

Barium salts

Battery acid

Beer

Benzaldehyde

Benzine - Benzol mixture

Benzol

Benzil chloride

Borax

Boric acid

Bromine

Bromine vapours

Butadiene, gas

Butane (2)diol(1,4)

Butanediol

Butanetriol(1,2,4)

Butin(2)diol(1,4)

Butyl acetate

Butyl alcohol

Butyl phenol

Butyl phenon

Butylene glycol

Butylene glycol

Butylene, liquid

Calcium cabonate

Calcium chloride

Calcium hydroxide

Calcium hypochlorite

Calcium nitrate

Carboline

Carbon dioxide, gas

Carbondioxide, liquid

Carbonhydride

Carbonimonoxide

Carbonsulphide

Caustic soda

Chloral

Chloramine

Chlorethanol

Chloric acid

Chloric acid

Chloric acid

Chlorine

Chlorine

Chlorine

Chlorine, gas

Chlorine, water

Chloroacetic acid

Chlorobenzol

Chloroform

Chlor sulphon acid

Chromic acid

Chromic acid/Sulphuric acid/water

Chrotonic aldehyde

Citric acid

Citric acid

City gas

Coconut fat alcohol

Coconut oil

Cognac

Copper(II)chloride

Copper(I)cyanide

Copper(III) nitrate

Copper sulphate

Corn oil

Cotton oil

Cresol

Cresol

Cyclohexane

Cyclohexanol

Cyclohexanone

Dextrine

Dextrine

Dextrose

1,2 Diaminoethan

Dichloro acetic acid

Dichloro acetic acid

Dichloro benzene

Dichloro ethylene (1,1-1,2)

Diesel oil

Diethyl amine

Diethyl ether

Diglycolic acid

Dihexyl phatalate

Di-iso octylphatalate

D-iso propylether

Dimethyformamide

Dymethyl amine

Di-n butyl ether

Dinonyl phatalate

Dioctyl phatalate

Dioxane

Drinking water

Ethanol

Ethanol+2% toluene

Ethyl acetate

Ethyl alcohol

Ethyl benzol

Ethyl chloride

Ethylene diamine

Ethylene glycol

Agresive MediaConce-

tration

Chemical Resistance


Conce-

tration

Chemical Resistance


Conce-

tration

Chemical Resistance

20C 60C 100C

Rare

TR

TR

TR

TR

40%

TR

40%

TR

TR

TR

GL

96%

GL

GL

GL

GL

TR

TR

TR

TR

GL

GL

GL

GL

L

GL

GL

GL

TR

TR

TR

GL

TR

TR

H

90%

L

GL

H

H

40%

80%

GL

GL

H

H

GL

8090/2090

TR

TR

L

GL

TR

All

TR

TR

TR

TR

TR

TR

TR

GL

TR

10%

TR

TR

GL

GL

GL

L

GL

H

All

All

Rare

All

TR

60%

TR

L

TR

1%

10%

20%

0,5%

1%

GL

TR

TR

L

TR

TR

TR

40%

15/35/50%

TR

VL

VL

H

TR

TR

H

GL

GL

30%

GL

TR

TR

90%

>90%

TR

TR

TR

L

L

20%

TR

TR

50%

TR

TR

H

TR

TR

GL

TR

TR

TR

TR

100%

TR

TR

TR

TR

TR

L

96%

TR

TR

TR

TR

TR

TR

.

,

8078 .

,

, ,

. ,

.

:

:

VL: ( 10%)

L: ( > 10%)

GL: 20

H:

TR:

Polypropylene is one of the polymers with highest chemical

resistance. The chemical resistance of pipes and fittings made of

Polypropylene Random Copolymer according to the German

Standard DIN 8078 given in the following table.

Chemical resistance is dependent on the kind of chemical, its

composition, concetracion, temperature and the duration of

exposure. Therefore the concetrations of the chemicals and

resistance at three different temperatures are included in the

table.

Chemical resistance is presented in the following four groups:

Resistive

Limited resistance

Nonresistive

Insufficient information

The following symbols describe the chemicals concetration:

VL: Diluted (mass ratio 10%)

L: Diluted (mass ratio > 10%)

GL: Saturated dilution at 20C

H: Commercial grade

TR: Technically pure

- PP-R PIPES - PP-R PIPES - PP-R PIPES

De

sig

n: "P

RIN

T C

HA

OS

" 2

00

7

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