rMIX DN25 3x2 RR 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 3x2 RL 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 2x4 LH 35

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25s 3x2 VL 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25 2x3 LL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x4+3mix R 35

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25s 3x2 VR 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 RR 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN32 3x2 RR 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN25 3x2 LR 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 3x4+3mix R 35

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN32 3x2 VL

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN25 3x4+3mix L 35

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RH 5

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x2 LL 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 2x3 LL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x4 RH 35

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LH 5

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

DÜV DN20 V2.0

For ensuring the minimum circulation of boilers and cascades of boilers in combination with rMIX 2x4 or rMIX 3x4 without hydraulic separator.

Performance data

Kvs = 8.9
Delta-p const = 50-500mbar
V'max = 2m³/h

DÜV DN25 V3.5

For ensuring the minimum circulation of boilers and cascades of boilers in combination with rMIX 2x4 or rMIX 3x4 without hydraulic separator.

Performance data

Kvs = 16
Delta-p const = 50-500mbar
V'max = 3.5m³/h

DÜV DN32 V7.0

For ensuring the minimum circulation of boilers and cascades of boilers in combination with rMIX 2x4 or rMIX 3x4 without hydraulic separator.

Performance data

Kvs = 31
Delta-p const = 50-500mbar
V'max = 7m³/h

rMIX DN25 2x3 LR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x3 LR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x3 RL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x3 RL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x3 RR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x3 RR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 6.2 • V'max[250mbar] = 3.1m³/h
Q'max[20K] = 72kW • Q'max[10K] = 36kW

rMIX DN25 2x4 LH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LH 1-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LH 15

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LH-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LT

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LT 1-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LT 15

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LT 5

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 LT-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RH 1-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RH 15

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RH-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RT

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RT 1-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RT 15

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RT 5

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4 RT-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+3mix L

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+3mix L 35

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+3mix R

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+UV L

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+UV L 15

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+UV L 5

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+UV R

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+UV R 15

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 2x4+UV R 5

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x2 LL

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 3x2 LR

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 3x2 RL

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 3x2 RR

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW • Q'max[10K] = 23kW

rMIX DN25 3x3 L

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x3 L 35

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x3 R

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x3 R 35

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x3C L

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 5,1 • V'max[250mbar] = 2,5m³/h
Q'max[20K] = 58kW
Condenser circuit (LT):
Kvs = 4.8 • V'max[250mbar] = 2.4m³/h
Q'max[10K] = 28kW

rMIX DN25 3x3C L 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 5,1 • V'max[250mbar] = 2,5m³/h
Q'max[20K] = 58kW
Condenser circuit (LT):
Kvs = 4.8 • V'max[250mbar] = 2.4m³/h
Q'max[10K] = 28kW

rMIX DN25 3x3C R

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 5,1 • V'max[250mbar] = 2,5m³/h
Q'max[20K] = 58kW
Condenser circuit (LT):
Kvs = 4.8 • V'max[250mbar] = 2.4m³/h
Q'max[10K] = 28kW

rMIX DN25 3x3C R 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 5,1 • V'max[250mbar] = 2,5m³/h
Q'max[20K] = 58kW
Condenser circuit (LT):
Kvs = 4.8 • V'max[250mbar] = 2.4m³/h
Q'max[10K] = 28kW

rMIX DN25 3x4 L

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 L 3

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 L 35

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 L 5

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 R

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 R 3

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 R 35

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4 R 5

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[20K] = 47kW
Mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4+3mix L

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25 3x4+3mix R

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
2nd mixing circuit (LT):
Kvs = 6.2 • V'max[100mbar] = 2m³/h
Q'max[10K] = 23kW

rMIX DN25s 2x3 LL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 LL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 LR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 LR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 RL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 RL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 RR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 RR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VLR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VLR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VRL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x3 VRL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 12.9 • V'max[250mbar] = 6.5m³/h
Q'max[20K] = 151kW • Q'max[10K] = 76kW

rMIX DN25s 2x4 LH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LH 1-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LH 15

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LH 35

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LH 5

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LH-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LT

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LT 1-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LT 15

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LT 5

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 LT-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RH 1-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RH 15

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RH 35

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RH 5

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RH-a

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RT

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RT 1-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RT 15

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RT 5

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4 RT-a

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+3mix L

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+3mix L 35

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+3mix R

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+3mix R 35

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+UV L

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+UV L 15

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+UV L 5

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+UV R

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+UV R 15

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 2x4+UV R 5

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x2 LL

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 LL 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 LR

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 LR 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 RL

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 RL 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 RR

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 VL

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 VLR

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 VLR 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 VR

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 VRL

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x2 VRL 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[20K] = 95kW • Q'max[10K] = 48kW

rMIX DN25s 3x3 L

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x3 L 35

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x3 R

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x3 R 35

For highly efficient two-zone unloading of a buffer tank through a mixed heating circuit with an additional unmixed flow connection for hot water preparation (charging circuit).

Performance data

Charging circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x3C L

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C L 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C R

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C R 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C VL

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C VL 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C VR

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x3C VR 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 11.6 • V'max[250mbar] = 5.8m³/h
Q'max[20K] = 135kW
Condenser circuit (LT):
Kvs = 9.2 • V'max[250mbar] = 4.6m³/h
Q'max[10K] = 53kW

rMIX DN25s 3x4 L

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 L 3

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 L 35

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 L 5

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 R

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 R 3

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 R 35

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4 R 5

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 11.9 • V'max[100mbar] = 3.8m³/h
Q'max[20K] = 88kW
Mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4+3mix L

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4+3mix L 35

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4+3mix R

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN25s 3x4+3mix R 35

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.3 • V'max[100mbar] = 4.2m³/h
Q'max[20K] = 98kW
2nd mixing circuit (LT):
Kvs = 12.9 • V'max[100mbar] = 4.1m³/h
Q'max[10K] = 48kW

rMIX DN32 2x3 LL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 LL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 LR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 LR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 RL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 RL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 RR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 RR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VLR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VLR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VR 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VRL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x3 VRL 5

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 18.9 • V'max[250mbar] = 9.5m³/h
Q'max[20K] = 221kW • Q'max[10K] = 110kW

rMIX DN32 2x4 L

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 L 15

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 L 35

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 L 5

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 R

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 R 15

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 R 35

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4 R 5

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4+3mix L

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4+3mix L 35

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4+3mix R

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4+3mix R 35

For discharging a stratified tank in a mixed low-temperature circuit (2nd mixed circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixed circuit) with the lowest possible return flow temperature.

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 2x4+UV L

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

rMIX DN32 2x4+UV L 15

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

rMIX DN32 2x4+UV L 5

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

rMIX DN32 2x4+UV R

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

rMIX DN32 2x4+UV R 15

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

rMIX DN32 2x4+UV R 5

For highly efficient use of the return flow of an unmixed high-temperature circuit (charging circuit) controlled via a changeover valve in a mixed low-temperature circuit (mixing circuit) on a condensing boiler with minimum circulation

rMIX DN32 3x2 LL

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 LL 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 LR

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 LR 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 RL

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 RL 5

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 RR

For highly efficient two-zone unloading of a buffer tank through a mixing circuit

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VL 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VLR

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VLR 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VR

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VR 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VRL

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x2 VRL 5

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[20K] = 140kW • Q'max[10K] = 70kW

rMIX DN32 3x3C L

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C L 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C R

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C R 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase as a mixed circuit and separate flue gas condenser or two return connections.

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C VL

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C VL 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C VR

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x3C VR 6

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 17.2 • V'max[250mbar] = 8.6m³/h
Q'max[20K] = 142kW
Condenser circuit (LT):
Kvs = 12.2 • V'max[250mbar] = 6.1m³/h
Q'max[10K] = 71kW

rMIX DN32 3x4 L

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4 L 35

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4 L 5

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4 R

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4 R 35

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4 R 5

For highly efficient two-zone discharge of a buffer tank in a mixed low-temperature circuit with highly efficient use of the return flow of an unmixed high-temperature circuit

Performance data

Direct heating circuit (HT):
Kvs = 15,8 • V'max[100mbar] = 5m³/h
Q'max[20K] = 116kW
Mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4+3mix L

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4+3mix L 35

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4+3mix R

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN32 3x4+3mix R 35

For highly efficient two-zone unloading of a buffer tank in a mixed low-temperature circuit (2nd mixing circuit) with highly efficient use of the return flow of a mixed high-temperature circuit (1st mixing circuit).

Performance data

1st mixing circuit (HT):
Kvs = 13.6 • V'max[100mbar] = 4.3m³/h
Q'max[20K] = 100kW
2nd mixing circuit (LT):
Kvs = 18.9 • V'max[100mbar] = 6m³/h
Q'max[10K] = 70kW

rMIX DN50 2x3 VL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 28.3 • V'max[250mbar] = 14m³/h
Q'max[20K] = 329kW
Q'max[10K] = 164kW

rMIX DN50 2x3 VR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with return temperature increase as a mixing circuit (three-chamber manifold).

Performance data

Producer circuit (HT-RLA):
Kvs = 28.3 • V'max[250mbar] = 14m³/h
Q'max[20K] = 329kW
Q'max[10K] = 164kW

rMIX DN50 3x2 VL

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 28.3 • V'max[100mbar] = 8.9m³/h
Q'max[20K] = 208kW
Q'max[10K] = 104kW

rMIX DN50 3x2 VR

For highly efficient use of the return flow of high-temperature circuits in a mixed low-temperature circuit (two- or three-chamber manifold) or for highly efficient two-zone discharge of a buffer tank through a mixed circuit (three-chamber manifold).

Performance data

Mixing circuit (LT):
Kvs = 28.3 • V'max[100mbar] = 8.9m³/h
Q'max[20K] = 208kW
Q'max[10K] = 104kW

rMIX DN50 3x3C VL

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Performance data will be published shortly

rMIX DN50 3x3C VR

For highly efficient two-zone charging of a buffer tank by a heat generator with return temperature increase and separate flue gas condenser or two return connections (three-chamber manifold).

Performance data

Performance data will be published shortly

VTB DN20 T20-70 Condenser Set

For automatic, hydraulic balancing of downstream condensing exhaust gas heat exchangers of boilers and CHP units, especially in conjunction with our rMIX DN25 3×3 C loading station.

Performance data

Kvs = 4.6
V'max[60mbar] = 1.1m³/h
Q'max = 26kW [20K]

VTB DN32s T25-70 Condenser Set

For automatic, hydraulic balancing of downstream condensing exhaust gas heat exchangers of boilers and CHP units, especially in conjunction with our rMIX 250 3×3 C loading station.

Performance data

Kvs = 12.5
V'max[100mbar] = 4.0m³/h
Q'max = 92kW [20K]

VTB DN40s T25-70 Condenser Set

For automatic, hydraulic balancing of downstream condensing exhaust gas heat exchangers of boilers and CHP units, especially in conjunction with our rMIX 250 3×3 C loading station.

Performance data

Kvs = 16
V'max[100mbar] = 5.1m³/h
Q'max = 120kW [20K]

VTB DN50s T25-70 Condenser Set

For automatic, hydraulic balancing of downstream condensing exhaust gas heat exchangers of boilers and CHP units, especially in conjunction with our rMIX 250 3×3 C loading station.

Performance data

Kvs = 20
V'max[100mbar] = 6.3m³/h
Q'max = 150kW [20K]