SE-SP-95V
Air source swimming pool heat pump with a titanium exchanger for chlorinated water. R410A scroll circuit, three-phase, pool water to 45 °C.
Performance
Rated output at each published test condition- Heating capacity
- 90kW
- Power input
- 13kW
- COP
- 6.9
- Water flow
- 40m³/hr
- Heating capacity
- 81.8kW
- Power input
- 12.2kW
- COP
- 6.7
- Water flow
- 40m³/hr
- Heating capacity
- 70.4kW
- Power input
- 12.1kW
- COP
- 5.8
- Water flow
- 40m³/hr
Technical specifications
SE-SP-95V| Parameter | Unit | Specification |
|---|---|---|
| Electrical supply | ||
| Power supply | — | 380~415 V / 50 Hz / 3 Ph |
| Rated current | A | 25.8 |
| Maximum input power | kW | 20.5 |
| Maximum current | A | 35.5 |
| Required MCB | — | 100 A × 4 pole |
| Required cable | — | 4 core × 16 sq.mm copper cable + earthing |
| Refrigeration circuit | ||
| Compressor | — | Scroll (Copeland / Panasonic) |
| Number of compressors | Nos | 2 |
| Refrigerant | — | R410A |
| Heat exchanger (condenser) | — | PVC shell titanium condenser |
| Evaporator | — | Blue finned evaporator coil |
| Throttling device | — | Electronic expansion valve |
| Fan quantity | Nos | 2 |
| Fan discharge | — | Vertical |
| Water circuit | ||
| Maximum pool water temperature | °C | 45 |
| Water flow | m³/hr | 40 |
| Water pipe size | inch | Rc2-1/2 |
| Unit & acoustics | ||
| Dimensions (L × W × H) | mm | 1850 × 950 × 1635 |
| Net weight | kg | 570 |
| Noise at 1 metre | dB(A) | ≤ 66 |
Test conditions
- T1 — Ambient 25/20 °C (DB/WB), E.T. 15 °C, C.T. 35 °C
- T2 — Ambient 20/15 °C (DB/WB), E.T. 10 °C, C.T. 35 °C
- T3 — Ambient 15/10 °C (DB/WB), E.T. 5 °C, C.T. 35 °C
- T4 — Ambient 10/7 °C (DB/WB), E.T. 0 °C, C.T. 35 °C
Installation requirement
- Dedicated 100 A × 4 pole MCB required at the unit.
- Supply cable 4 core × 16 sq.mm copper, with separate earthing.
- Maintain water flow of 40 m³/hr through the unit.
Built to order
Options available on this modelOptions
- Water connection — Coupling type to suit the site — threaded, flanged or grooved.
- Casing — Stainless steel or powder-coated finish.
- Circulation pump — Can be built into the unit instead of being fitted in the plant room.
How to order them
- None of the above is the standard build, and none of it is included in the specification table on this page.
- Ask for it at enquiry and have it confirmed in writing on the order acknowledgement. Price, lead time and weight can all change with it.
The table above describes the standard machine. Options are quoted per order and are available across the range except on the All-in-One and Split units.
Site installation schematic
How the unit connects to the pool, filter and pump set on site- 1Heat pump unit
- 2RCC foundation with anti-vibration pads
- 3Swimming pool
- 4Circulation pump
- 5Sand / cartridge filter — always upstream of the heat pump
- 6Hair-and-lint strainer
- 7Non-return valve
- 8Skimmer suction
- 9Main drain suction
- 10Return inlet jets
- 11Pool water sensor to heat pump controller
- 12Chemical dosing point — downstream of the exchanger only
- 13Backwash / drain valve
- 14Power supply / MCB panel
Indicative hookup only. Static head, draw pattern and local code may call for additional components — confirm the final scheme with Sunniva before ordering.
Selection & site preparation
Recommended sizing derived from this model’s rated data| Rated heating capacity | 90 kW at T1 |
| Design flow through the unit | 40 m³/hr |
| Pool volume served | Sized on surface area, cover, wind exposure and required heat-up time — confirm with Sunniva before ordering. |
| Filtration | Full-flow sand or cartridge filter upstream of the heat pump; turnover 4 – 6 hours |
| Hydraulic connection | Three-valve bypass on the Rc2-1/2 (65 mm) circuit, set to the design flow |
| Chemical dosing | Downstream of the exchanger only, never between filter and unit |
| Unit footprint & dry weight | 1850 × 950 mm · 570 kg |
| Heat pump plinth | 2000 × 1100 × 150 mm RCC, M20 |
| Plinth level | 100 mm above finished floor, ± 3 mm/m |
| Position | Outdoors, clear of the pool surround splash zone, condensate drained away from the deck |
| Clearances | 1000 mm air-on · 1500 mm above fan · 1000 mm service side |
| Electrical | 100 A × 4 pole MCB · 4 core × 16 sq.mm copper cable + earthing |
Installation steps
Follow in order — a commissioning engineer should sign off before start-up- Cast the RCC plinth 2000 × 1100 × 150 mm in M20 concrete, 100 mm above finished floor and clear of the pool surround. Check it is level within 3 mm per metre.
- Set the unit down on anti-vibration pads. Keep 1000 mm clear at the finned coil faces and 1500 mm above the fan. The unit sheds cold air and condensate — drain both away from the deck.
- Take pool water from the skimmer and main drain through the hair-and-lint strainer to the circulation pump.
- Pipe pump → filter → heat pump. The filter must always sit upstream: debris through the titanium exchanger will foul it.
- Fit a three-valve bypass around the unit on the Rc2-1/2 (65 mm) line so flow can be trimmed to 40 m³/hr and the unit isolated for service.
- Return heated water to the pool through the inlet jets. Fit a non-return valve on the return leg.
- Place the chemical dosing point downstream of the heat pump. Dosing upstream will destroy the exchanger and voids the warranty.
- Fit the pool water sensor in the return line and run its cable back to the controller, away from the power cable.
- Power the unit from a dedicated 100 A × 4 pole MCB using 4 core × 16 sq.mm copper cable + earthing.
- Balance the water chemistry before first start: pH 7.2 – 7.8, free chlorine below 3 ppm, salt below 5000 ppm.
- Run the circulation pump, confirm the flow switch stops the unit when flow is lost, then start the heat pump.
Process & instrumentation diagram
Refrigeration circuit, instrumentation and water connectionsInstrument schedule
Tags as marked on the diagram above| Tag | Device | Function |
|---|---|---|
| TT 01 | Compressor discharge temperature | Discharge superheat & high-temperature cut-out |
| TT 02 | Compressor suction temperature | Suction superheat monitoring |
| TT 03 | Water outlet temperature | Set-point control |
| TT 04 | Water inlet temperature | Return water sensing, ΔT calculation |
| PS HIGH | High-pressure switch | Discharge over-pressure cut-out |
| Tag | Device | Function |
|---|---|---|
| PS LOW | Low-pressure switch | Loss-of-charge / low-suction cut-out |
| PI HP | High-side pressure gauge | Discharge pressure indication |
| PI LP | Low-side pressure gauge | Suction pressure indication |
| FS 01 | Water flow switch | Interlock — no-flow lockout |
Cabinet reference drawing
Typical general arrangement — this model’s own dimensions alongsideCOP characteristic
Full performance map across the operating envelope| COP · hot water ↓ / Ambient °C → | -12 | 7 | 10 | 15 | 20 | 25 | 30 | 35 |
|---|---|---|---|---|---|---|---|---|
| 45 °C | 2.61 | 4.14 | 4.41 | 4.71 | 5.02 | 5.26 | 5.52 | 5.79 |
| 50 °C | 2.39 | 3.79 | 4.04 | 4.31 | 4.60 | 4.82 | 5.05 | 5.30 |
| 55 °C | 2.19 | 3.47 | 3.70 | 3.95 | 4.21 | 4.41 | 4.63 | 4.85 |
| 60 °C | 1.98 | 3.14 | 3.35 | 3.57 | 3.81 | 4.00 | 4.19 | 4.40 |
How to read this
- Performance map for the R410A circuit. Rated figures at the certified test conditions are on page 1.
- Where a figure on this map differs from the rated point on page 1, the map governs — it is measured across the full operating envelope, while the rated point is a single certified test condition.
Operating envelope
The compressor’s permitted window, in refrigeration terms| Evaporating temperature Te | −25 °C to 25 °C |
| Condensing temperature Tc | 20 °C to 67 °C |
| Peak condensing | 67 °C highest hot-water temperature the circuit can reach |
| Transient operation | Not applicable the envelope above is the continuous operating window |
Reading the envelope
- Te (evaporating) follows the source the unit draws heat from — the colder the air or source water, the lower Te sits.
- Tc (condensing) follows the water leaving the unit — asking for 80 °C hot water puts Tc near the top of the envelope.
- A duty is valid only inside the shaded area. A cold source combined with very hot water pushes the point towards the top-left, which is exactly where the envelope closes in — that corner is the real limit on winter performance.
Representative envelope for the R410A circuit, redrawn from Panasonic compressor data (Operating envelop.xlsx, sheet “R410a”). Envelope limits are broadly similar across compressor makes, so treat this as a representation of the circuit’s operating window. Where a duty sits close to a boundary, confirm against the compressor fitted to the unit before finalising the design.
Documents & links
Scan with a phone camera, or tap the buttonsDocumentation
Scan to open the latest revision on sunnivaencon.com
Connect & review
Product videos and customer feedback
SE-SP-95V · Technical Data Sheet. Specifications are subject to change without prior notice.