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 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

rJET DN25 2x4 RH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 5.6 • V'max[100mbar] = 1.8m³/h
Q'max[20K] = 42kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

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 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

DEFbox DN25 2x2 LT

TWIN module for expanding a rendeMIX DUVbox 2x3 or 2x4 for draining a defrost buffer located in the return of a heat pump by switching the heat pump flow to its own return.

DEFbox DN25 2x2 LT 3

TWIN module for expanding a rendeMIX DUVbox 2x3 or 2x4 for draining a defrost buffer located in the return of a heat pump by switching the heat pump flow to its own return.

DEFbox DN25 2x2 RT

TWIN module for expanding a rendeMIX DUVbox 2x3 or 2x4 for draining a defrost buffer located in the return of a heat pump by switching the heat pump flow to its own return.

DEFbox DN25 2x2 RT 3

TWIN module for expanding a rendeMIX DUVbox 2x3 or 2x4 for draining a defrost buffer located in the return of a heat pump by switching the heat pump flow to its own return.

DÜV DN15 2x2 MUL set L

For ensuring the minimum circulation in the thermal or boiler circuit of a rendeMIX 2x4 L or rendeMIX 3x4 L return use without hydraulic separator up to 500l/h

Performance data

Kvs = 1.6
Delta-p const = 100-500mbar
V'max = 0.5m³/h

DÜV DN15 2x2 MUL-Set R

To ensure the minimum circulation in the thermal or boiler circuit of a rendeMIX 2x4 R or rendeMIX 3x4 R Return flow use without hydraulic separator up to 500l/h

Performance data

Kvs = 1.6
Delta-p const = 100-500mbar
V'max = 0.5m³/h

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

DUVbox DN25 2x4 L

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 9.4 • V'max[250mbar] = 4.7m³/h
Q'max[20K] = 109kW • Q'max[10K] = 55kW

DUVbox DN25 2x4 L 3

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 9.4 • V'max[250mbar] = 4.7m³/h
Q'max[20K] = 109kW • Q'max[10K] = 55kW

DUVbox DN25 2x4 R

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 9.4 • V'max[250mbar] = 4.7m³/h
Q'max[20K] = 109kW • Q'max[10K] = 55kW

DUVbox DN25 2x4 R 3

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 9.4 • V'max[250mbar] = 4.7m³/h
Q'max[20K] = 109kW • Q'max[10K] = 55kW

DUVbox DN25s 2x4 L

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 10.1 • V'max[250mbar] = 5.1m³/h
Q'max[20K] = 119kW • Q'max[10K] = 59kW

DUVbox DN25s 2x4 L 3

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 10.1 • V'max[250mbar] = 5.1m³/h
Q'max[20K] = 119kW • Q'max[10K] = 59kW

DUVbox DN25s 2x4 R

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 10.1 • V'max[250mbar] = 5.1m³/h
Q'max[20K] = 119kW • Q'max[10K] = 59kW

DUVbox DN25s 2x4 R 3

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority hot water preparation

Performance data

Producer circuit (LT):
Kvs = 10.1 • V'max[250mbar] = 5.1m³/h
Q'max[20K] = 119kW • Q'max[10K] = 59kW

DUVbox DN25s 2x4 VL

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority domestic hot water preparation (three-chamber manifold)

Performance data

Producer circuit (LT):
Kvs = 10.4 • V'max[250mbar] = 5.2m³/h
Q'max[20K] = 121kW • Q'max[10K] = 60kW

DUVbox DN25s 2x4 VL 3

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority domestic hot water preparation (three-chamber manifold)

Performance data

Producer circuit (LT):
Kvs = 10.4 • V'max[250mbar] = 5.2m³/h
Q'max[20K] = 121kW • Q'max[10K] = 60kW

DUVbox DN25s 2x4 VR

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority domestic hot water preparation (three-chamber manifold)

Performance data

Producer circuit (LT):
Kvs = 10.4 • V'max[250mbar] = 5.2m³/h
Q'max[20K] = 121kW • Q'max[10K] = 60kW

DUVbox DN25s 2x4 VR 3

For highly efficient two-zone charging of a buffer storage tank by a heat generator with minimum circulation in heating mode and with priority domestic hot water preparation (three-chamber manifold)

Performance data

Producer circuit (LT):
Kvs = 10.4 • V'max[250mbar] = 5.2m³/h
Q'max[20K] = 121kW • Q'max[10K] = 60kW

rJET DN25 2x4 LH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 5.6 • V'max[100mbar] = 1.8m³/h
Q'max[20K] = 42kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET DN25 2x4 LH 1

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 5.6 • V'max[100mbar] = 1.8m³/h
Q'max[20K] = 42kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET 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 and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET DN25 2x4 LT 1

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET DN25 2x4 RH 1

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 5.6 • V'max[100mbar] = 1.8m³/h
Q'max[20K] = 42kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET 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 and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET DN25 2x4 RT 1

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rJET DN25s 2x4 LH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 9.2 • V'max[100mbar] = 2.9m³/h
Q'max[20K] = 67kW
Mixing circuit (LT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET DN25s 2x4 LH 1

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 9.2 • V'max[100mbar] = 2.9m³/h
Q'max[20K] = 67kW
Mixing circuit (LT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET 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 and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET DN25s 2x4 LT 1

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET DN25s 2x4 RH

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 9.2 • V'max[100mbar] = 2.9m³/h
Q'max[20K] = 67kW
Mixing circuit (LT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET DN25s 2x4 RH 1

For highly efficient use of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!) at a condensing boiler, a stratified tank or a heat transfer station.

Performance data

Direct heating circuit (HT):
Kvs = 9.2 • V'max[100mbar] = 2.9m³/h
Q'max[20K] = 67kW
Mixing circuit (LT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET 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 and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rJET DN25s 2x4 RT 1

TWIN assembly for expanding a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control from the differential pressure of the pump in the heat generator circuit (i.e. without an additional pump in the primary circuit of the system separation!)

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

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 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 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

rSYS DN25 2x4 LH

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4 LH 1-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LH 15

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LH 3-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LH 35

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LH 5

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LH-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LT

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (LT) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4 LT 1-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LT 15

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LT 5

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 LT-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RH

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4 RH 1-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RH 15

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RH 3-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RH 35

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RH 5

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RH-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RT

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (LT) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4 RT 1-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RT 15

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RT 5

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4 RT-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 6.5 • V'max[100mbar] = 2.1m³/h
Q'max[20K] = 49kW
Additional mixing circuit (NT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4+3mix L

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4+3mix L 35

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4+3mix R

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4+3mix R 35

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4+UV L

For the 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) by means of highly efficient operation of a system separation via flow control on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
Mixing circuit (LT) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4+UV L 15

For the 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) by means of highly efficient operation of a system separation via flow control on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4+UV L 5

For the 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) by means of highly efficient operation of a system separation via flow control on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4+UV R

For the 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) by means of highly efficient operation of a system separation via flow control on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
Mixing circuit (LT) for ST on-site:
Kvs = 9.4 • V'max[100mbar] = 3m³/h
Q'max[10K] = 35kW

rSYS DN25 2x4+UV R 15

For the 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) by means of highly efficient operation of a system separation via flow control on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25 2x4+UV R 5

For the 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) by means of highly efficient operation of a system separation via flow control on a condensing boiler with minimum circulation

Performance data

Charging circuit (HT):
Kvs = 12.5 • V'max[100mbar] = 4m³/h
Q'max[20K] = 93kW
Mixing circuit (LT) with ST DN25:
Kvs = 5.7 • V'max[100mbar] = 1.8m³/h
Q'max[10K] = 21kW

rSYS DN25s 2x4 LH

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4 LH 1-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LH 15

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LH 3-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LH 35

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LH 5

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LH-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LT

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (LT) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4 LT 1-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LT 15

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LT 5

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 LT-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RH

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4 RH 1-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RH 15

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RH 3-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RH 35

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RH 5

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RH-a

For highly efficient utilisation of the return flow of an unmixed high-temperature circuit in a mixed low-temperature circuit by means of highly efficient operation of a system separation via flow control at a condensing boiler, a stratified storage 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) with ST DN25s: Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RT

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (LT) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4 RT 1-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RT 15

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RT 5

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4 RT-a

TWIN assembly for the expansion of a rendeMIX 2x4 assembly by an additional low-temperature mixing circuit with return use of the high-temperature circuit and highly efficient operation of a system separation via flow control

Performance data

Downstream assembly (HT):
Kvs = 13.9 • V'max[100mbar] = 4.4m³/h
Q'max[20K] = 102kW
Additional mixing circuit (NT) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4+3mix L

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4+3mix L 35

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4+3mix R

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4+3mix R 35

For discharging a stratified storage tank in a mixed low-temperature circuit (2nd mixed circuit) by means of high-efficiency operation of a system separation via flow control 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) with ST DN25s:
Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4+UV L

For the 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) by means of highly efficient operation of a system separation via flow control 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) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4+UV L 15

For the 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) by means of highly efficient operation of a system separation via flow control 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) with ST DN25s:Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4+UV L 5

For the 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) by means of highly efficient operation of a system separation via flow control 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) with ST DN25s:Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4+UV R

For the 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) by means of highly efficient operation of a system separation via flow control 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) for ST on-site:
Kvs = 9.7 • V'max[100mbar] = 3.1m³/h
Q'max[10K] = 36kW

rSYS DN25s 2x4+UV R 15

For the 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) by means of highly efficient operation of a system separation via flow control 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) with ST DN25s:Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

rSYS DN25s 2x4+UV R 5

For the 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) by means of highly efficient operation of a system separation via flow control 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) with ST DN25s:Kvs = 7.2 • V'max[100mbar] = 2.3m³/h
Q'max[10K] = 27kW

ST DN25 AD100 P40 LL

Compatible with rJET / rSYS 2x4 LH, 2x4 RT, 3x2 LL / RL and 2x3 LL / RL products in the light version (heavy versions require art. no. 001 106 - ST DN25s AD100 P60 LL)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 LL 5

Compatible with rJET / rSYS 2x4 LH, 2x4 RT, 3x2 LL / RL and 2x3 LL / RL products in the light version (strong versions require art. no. 001 108 - ST DN25s AD100 P60 LL 5)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 LR

Compatible with rJET / rSYS 3x4 R, 3x4+ R and 2x4+ R products in the light version (heavy versions require art. no. 001 136 - ST DN25s AD100 P60 LR)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 LR 5

Compatible with rJET / rSYS 3x4 R, 3x4+ R and 2x4+ R products in the light version (heavy versions require art. no. 001 138 - ST DN25s AD100 P60 LR 5)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 RL

Compatible with rJET / rSYS 3x4 L , 3x4+ L and 2x4+ L products in the light version (strong versions require art. no. 001 137 - ST DN25s AD100 P60 RL)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 RL 5

Compatible with rJET / rSYS 3x4 L, 3x4+ L and 2x4+ L products in the light version (strong versions require art. no. 001 139 - ST DN25s AD100 P60 RL 5)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 RR

Compatible with rJET / rSYS 2x4 RH, 2x4 LT, 3x2 RR / LR and 2x3 RR / LR products in the light version (heavy versions require item no. 001 107 - ST DN25s AD100 P60 RR)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25 AD100 P40 RR 5

Compatible with rJET / rSYS 2x4 RH, 2x4 LT, 3x2 RR / LR and 2x3 RR / LR products in the light version (heavy versions require art. no. 001 109 - ST DN25s AD100 P60 RR 5)

Performance data

Kvs = 7.9
V'max[100mbar] = 2.5m³/h
Q'max = 29kW [10K] = 58kW[20K]

ST DN25s AD100 P60 LL

Compatible with rJET / rSYS DN25s 2x4 LH products in the heavy-duty version (light-duty versions require art. no. 001 006 - ST DN25 AD100 P40 LL)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 LL 5

Compatible with rJET / rSYS DN25s 2x4 LH products in the strong version (light versions require art. no. 001 008 - ST DN25 AD100 P40 LL 5)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 LR

Compatible with rJET / rSYS DN25s 3x4 R, 3x4+ R and 2x4+ R products in the heavy-duty version (light-duty versions require art. no. 001 036 - ST DN25 AD100 P40 LR)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 LR 5

Compatible with rJET / rSYS DN25s 3x4 R, 3x4+ R and 2x4+ R products in the heavy-duty version (light-duty versions require art. no. 001 038 - ST DN25 AD100 P40 LR 5)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 RL

Compatible with rJET / rSYS DN25s 3x4 L, 3x4+ L and 2x4+ L products in the heavy-duty version (light-duty versions require art. no. 001 037 - ST DN25 AD100 P40 RL)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 RL 5

Compatible with rJET / rSYS DN25s 3x4 L, 3x4+ L and 2x4+ L products in the heavy-duty version (light-duty versions require art. no. 001 039 - ST DN25 AD100 P40 RL 5)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 RR

Compatible with rJET / rSYS DN25s 2x4 RH products in the heavy-duty version (light-duty versions require art. no. 001 007 - ST DN25 AD100 P40 RR)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]

ST DN25s AD100 P60 RR 5

Compatible with rJET / rSYS DN25s 2x4 RH products in the heavy-duty version (light-duty versions require art. no. 001 009 -ST DN25 AD100 P40 RR 5)

Performance data

Kvs = 9.1
V'max[100mbar] = 2.9m³/h
Q'max = 33kW [10K] = 67kW[20K]