RBHG-160G

Categories：HEAT PUMP - Special high-temperature drying heat pump

Introduction：The high-temperature heat pump green drying machine utilizes heat pump technology. It can absorb the high-temperature and high-humidity exhaust gas emitted after drying linen through the evaporator of the heat pump. Then, the refrigerant is pressurized by the compressor to increase the temperature, and the heated air is passed through the condenser of the heat pump and enters the drum. Since the consumed electric energy is only for maintaining the circulation of the refrigerant and continuously transferring heat, it can obtain a greater amount of heat output with a smaller input of electric energy.

Advantages：

Suitable for large washing industrial parks

RBHG-160G Technical Parameters

型号	RBHG-160G
额定制热量	150kw
额定输入功率	42kw
应急电热功率	15kw
额定放衣物量	150kg
最高风温	120℃
外形尺寸（mm）	204020902620
净重	2200kg

RBHG-160G Product Advantages

Traditional Washer-Dryer Working Principle & Energy Consumption

Current Energy Analysis: Most laundry industrial parks currently use gas-fired boilers to supply steam to the on-site laundry plants. However, natural gas prices continue to rise, and the drying and washing equipment used by these plants generally lacks heat recovery systems. As a result, energy costs remain persistently high.

Traditional washer-dryer working principle and energy consumption

[Diagram: Traditional dryer steam piping — steam pipes, condenser, drying equipment, exhaust gas 50~80℃ waste heat]

Working Principle: Most traditional dryers use boilers to generate steam as the thermal medium. Steam is piped to each dryer, where a heat exchanger converts the steam energy into hot air (100~120℃) that is fed into the dryer drum. The exhaust air discharged after drying linen still reaches 50~80℃, wasting a significant amount of thermal energy.

Laundry Industry Production Process & Energy Retrofit Comparison

Laundry industry production process and energy retrofit comparison

[Flowchart: Laundry sorting → Washer-extractor → Dehydrator → Dryer; Retrofit: Air/Water source high-temp heat pump producing 75℃ hot water, high-temp steam heat pump recovering exhaust waste heat]

Using air-source or water-source high-temperature heat pumps to produce 75℃ hot water injected directly into washing machines saves energy and boosts productivity.

Using high-temperature steam heat pumps to recover exhaust waste heat as a heat source for steam production — energy-efficient and cost-effective.

Zhongshengneng High-Temp Heat Pump Washer-Dryer Working Principle & Energy Consumption

Zhongshengneng high-temp heat pump washer-dryer working principle and energy consumption

[Schematic: Heat pump cycle — compressor, condenser, expansion valve, evaporator, with temperature annotations at each point]

Energy-Saving Principle: The high-temperature heat pump green dryer uses heat pump technology to fully absorb heat from the high-temperature, high-humidity exhaust discharged after drying linen. The heat is absorbed through the evaporator, then the refrigerant is pressurized and temperature-boosted by the compressor, and the condenser heats the air entering the drum. Since the electrical energy consumed only maintains the refrigerant circulation — a continuous heat transfer process — a small electrical input yields a large heat output.

Zhongshengneng Green Heat Core — Super Steam Replacement Savings

To reduce energy costs, many laundry plants locate next to power plants where steam is generally cheaper, typically around 220~260 CNY/ton. If a laundry plant mainly operates during the day, electricity rates can reach 0.9 CNY/kWh, which limits the savings from a pure heat pump dryer. To address this, Zhongshengneng introduced the Green Heat Core washer-dryer, which saves significant costs even when steam prices are low.

[Green Heat Core dual-energy heat pump schematic — steam + heat pump composite heating]

Energy-Saving Principle: The hot air entering the drum is heated in two stages: the low-temperature stage by the heat pump and the high-temperature stage by steam. According to heat pump principles, the smaller the difference between condensation and evaporation temperatures, the higher the energy efficiency. Heating the low-temperature stage keeps the condensation temperature low, while the addition of steam heat raises the exhaust temperature, which in turn raises the evaporation temperature. Therefore, the heat pump's energy efficiency is very high when heating the low-temperature stage — COP can reach 5.0, equivalent to producing 1 ton of steam using only 144 kWh. At 0.9 CNY/kWh, that's just 130 CNY/ton of steam, saving 110 CNY/ton compared to power plant steam (at 240 CNY/ton).

For example: Air entering the drum is heated from 20℃ to 120℃ (a 100℃ rise), where 20℃~90℃ is heated by the heat pump (70℃ rise) and 90℃~120℃ by steam (30℃ rise). Additionally, the dual-energy green dryer requires less compressor power, reducing equipment cost.

Ultra-High-Temp Steam Heat Pump vs. Gas/Electric Boiler Steam — Cost Analysis

Ultra-high-temp steam heat pump vs. gas/electric boiler steam analysis

[Bar chart: Electric 100%, Gas boiler 67%, Power plant steam 60%, High-temp heat pump 33%; Note: electricity at 0.7 CNY/kWh, gas at 4.0 CNY/m³, piped steam at 350 CNY/ton]

How to Choose Between Pure Heat Pump and Green Heat Core Washer-Dryers

Energy Savings Comparison: Pure Heat Pump & Green Heat Core Washer-Dryers vs. Steam Dryers

Electricity Price CNY/kWh	100G Pure Heat Pump Washer-Dryer vs. Steam Dryer							120G Green Heat Core Dual-Energy Washer-Dryer vs. Steam Dryer
Electricity Price CNY/kWh	Steam Price	200 CNY/ton	240 CNY/ton	280 CNY/ton	320 CNY/ton	360 CNY/ton	400 CNY/ton	Steam Price	200 CNY/ton	240 CNY/ton	280 CNY/ton	320 CNY/ton	360 CNY/ton	400 CNY/ton
0.5	Steam Cost	243	283	322	362	401	441	Savings	243	283	322	362	401	441
	Washer-Dryer Cost	126	126	126	126	126	126	Green Heat Core Cost	126	138	150	161	173	185
	Savings	117	157	196	236	275	315	Savings	117	145	173	200	228	256
	Energy Saving Rate	48.1%	55.4%	60.9%	65.2%	68.6%	71.4%	Energy Saving Rate	48.2%	51.3%	53.6%	55.4%	56.8%	58.0%
0.6	Steam Cost	252	292	331	371	410	450	Savings	252	292	331	371	410	450
	Washer-Dryer Cost	151	151	151	151	151	151	Green Heat Core Cost	139	151	163	175	187	198
	Savings	101	140	180	220	259	299	Savings	113	141	168	196	224	251
	Energy Saving Rate	40.0%	48.1%	54.3%	59.2%	63.2%	66.4%	Energy Saving Rate	44.8%	48.2%	50.8%	52.9%	54.5%	55.9%
0.7	Steam Cost	261	301	340	380	419	459	Savings	261	301	340	380	419	459
	Washer-Dryer Cost	176	176	176	176	176	176	Green Heat Core Cost	152	164	176	188	200	212
	Savings	85	124	164	203	243	283	Savings	109	136	164	192	219	247
	Energy Saving Rate	32.4%	41.3%	48.1%	53.6%	57.9%	61.6%	Energy Saving Rate	41.6%	45.4%	48.2%	50.5%	52.3%	53.9%
0.8	Steam Cost	270	310	349	389	428	468	Savings	270	310	349	389	428	468
	Washer-Dryer Cost	202	202	202	202	202	202	Green Heat Core Cost	166	178	189	201	213	225
	Savings	68	108	148	187	227	266	Savings	104	132	160	187	215	243
	Energy Saving Rate	25.3%	34.9%	42.3%	48.1%	52.9%	56.9%	Energy Saving Rate	38.6%	42.7%	45.8%	48.2%	50.2%	51.9%
0.9	Steam Cost	279	319	358	398	437	477	Savings	279	319	358	398	437	477
	Washer-Dryer Cost	227	227	227	227	227	227	Green Heat Core Cost	179	191	203	215	226	238
	Savings	52	92	131	171	211	250	Savings	100	128	155	183	211	239
	Energy Saving Rate	18.7%	28.8%	36.7%	43.0%	48.1%	52.5%	Energy Saving Rate	35.9%	40.1%	43.4%	46.1%	48.2%	50.0%
1	Steam Cost	288	328	367	407	446	486	Savings	288	328	367	407	446	486
	Washer-Dryer Cost	252	252	252	252	252	252	Green Heat Core Cost	192	204	216	228	240	252
	Savings	36	76	115	155	194	234	Savings	96	123	151	179	207	234
	Energy Saving Rate	12.5%	23.1%	31.4%	38.1%	43.5%	48.1%	Energy Saving Rate	33.3%	37.7%	41.2%	44.0%	46.3%	48.2%
1.1	Steam Cost	297	337	376	416	455	495	Savings	297	337	376	416	455	495
	Washer-Dryer Cost	277	277	277	277	277	277	Green Heat Core Cost	206	219	229	241	253	265
	Savings	20	59	99	139	178	218	Savings	91	119	147	175	202	230
	Energy Saving Rate	6.7%	17.6%	26.3%	33.3%	39.1%	44.0%	Energy Saving Rate	30.8%	35.4%	39.1%	42.0%	44.6%	46.5%
1.2	Steam Cost	306	346	385	425	464	504	Savings	306	346	385	425	464	504
	Washer-Dryer Cost	302	302	302	302	302	302	Green Heat Core Cost	219	231	243	254	266	278
	Savings	4	43	83	122	162	202	Savings	87	115	143	170	198	226
	Energy Saving Rate	1.2%	12.5%	21.5%	28.8%	34.9%	40.0%	Energy Saving Rate	28.5%	33.3%	37.0%	40.1%	42.7%	44.8%
1.3	Steam Cost	315	355	394	434	473	513	Savings	315	355	394	434	473	513
	Washer-Dryer Cost	328	328	328	328	328	328	Green Heat Core Cost	232	244	256	268	280	291
	Savings	-13	27	67	106	146	185	Savings	83	111	138	166	194	222
	Energy Saving Rate	-4.0%	7.6%	16.9%	24.5%	30.8%	36.1%	Energy Saving Rate	26.3%	31.2%	35.1%	38.3%	40.9%	43.2%

Note: Based on 12 hours/day operation drying 900 kg of dry linen, compared with an equivalent steam dryer

Green Heat Core — Earn 100% More

Save Money

Low linen drying cost — save 70,000+ CNY per unit per year

Easy Install

All-in-one installation, no pipework required

Save Energy

Waste heat recovery for higher efficiency, zero carbon, zero pollution

Worry-Free Drying

Even heat distribution, high-quality results, low reject rate

Less Labor

5G IoT connectivity for quick maintenance

Low Maintenance

Stable system, low failure rate, non-pressure vessel — inspection exempt

[Workshop photo: Laundry facility linen drying workshop]

Scenario-Specific Drying Solutions

Built-in GDS+6S Dual System Core | Powerful Green Drying Engine | 6S Energy-Saving Super-Saver Mode

Denim Washing Special Dryer

No fraying! 6-Saver dual-channel drying system

Preserves soft texture, prevents high-temp stiffening; specially designed gentle drying curve protects denim color-fade and texture

Denim drying illustration

Medical Fabric Special Dryer

Constant high temperature, hygienic green drying

High-temp sanitization without damaging fabric fibers; dedicated medical linen germ-reduction drying curve

Medical fabric scenario

Hotel Linen Special Dryer

Fluffy as new, white as fresh — heats air, not your budget!

Precise smart temperature & humidity control, prevents fiber hardening, yellowing, and odor residue from high heat

Hotel linen drying illustration

Premium Garment Special Dryer

Constant-temp precision drying — tech-powered luxury care, 1 machine 6 savings!

Gentle, meticulous drying that preserves the natural texture and precious feel of premium fabrics

Premium garment scenario

Zhongshengneng Heat Pump Washer-Dryer vs. Standard Steam Dryer — Investment Analysis

Category	Zhongshengneng Heat Pump Washer-Dryer	Standard Steam-Heated Dryer
Energy Cost (drying 1 kg dry linen, 45% moisture)	0.28 kWh, energy cost = 0.9 × 0.28 = 0.252 CNY (incl. drum fan power)	1.1 kg steam + 0.1 kWh power, energy cost = 0.486 CNY
Daily Energy Cost 12h operation, 900 kg dried	227 CNY	437 CNY
Daily Savings	437 − 227 = 210 CNY
Environmental Cost	Electricity only — zero pollution, zero emissions, no site restrictions	Power plant steam is expensive; gas boiler requires boiler room space, dedicated staff, and annual inspection
Initial Equipment Investment	125,800 CNY/unit — only requires power connection and exhaust vent	Main unit 35,000 + boiler piping allocation 30,000 = 65,000 CNY/unit total
Economic Benefit	Save 210 CNY/day, 6,300 CNY/month, 75,600 CNY/year; payback in 1.7 years for replacement, under 1 year for new purchase

Based on case studies: Zhongshengneng high-temp heat pump green dryer uses no more than 0.3 kWh per kg of dry linen (at 45% moisture content).

How to Obtain Lower Electricity Rates:

Most laundry plants operate mainly during daytime, using peak-rate electricity at 0.9~1.0 CNY/kWh. To secure lower rates even during daytime operation, Zhongshengneng partners with solar PV and energy storage investment companies — at no cost to the laundry plant — to provide electricity at rates below 0.7 CNY/kWh.

Multiple Cooperation Models — Choose What Fits & Start Your Green Transition

1. Lease-to-Own Financing Model

20% down payment, balance financed over 3 years

Zhongshengneng has signed strategic agreements with multiple financial leasing companies. Customers ordering Zhongshengneng high-temperature heat pump energy-saving dryers can use lease-to-own installment plans to easily acquire the equipment.

Equipment Price	20% Down Payment	3-Year Balance + Interest	Monthly Payment	Monthly Equipment Savings	Net Monthly Profit After Payment
125,800 CNY	25,160 CNY	100,640 CNY	2,980 CNY	5,940 CNY	2,680 CNY

This plan carries zero risk. After deducting the down payment and installments over 3 years, each unit earns 24,000 CNY/year net. After 3 years, the equipment is essentially free, and each unit continues to earn over 70,000 CNY/year. Actual figures subject to bank calculations.

2. Pure Leasing Model (Simplified Energy Management Contract)

Zhongshengneng provides 1 washer-dryer for side-by-side testing against your existing dryer. If the Zhongshengneng unit saves at least 2,980 CNY/month more than your current equipment, after deducting the lease fee you still save 2,520 CNY/month. You then pay a monthly rental for the energy-saving dryer. If business shrinks, you can return some equipment at any time; if business grows, you can purchase the leased units.

With this plan, the laundry facility pays nothing upfront — no credit check, zero risk, zero investment — and immediately saves substantial energy costs with Zhongshengneng's energy-saving dryer.

How to Calculate Hourly Savings of the Zhongshengneng Heat Pump Washer-Dryer

Hourly savings = Weight of linen dried per hour × (Current equipment energy cost per kg − Zhongshengneng heat pump energy cost per kg). Calculation steps:

1. Determine your energy prices
2. Calculate current equipment energy cost per kg of dry linen
3. Calculate Zhongshengneng heat pump washer-dryer energy cost per kg of dry linen

Heat Pump Hot Water — The Finishing Touch for Laundry Energy Savings

Laundry plants need hot water at appropriate temperatures for washing. Most facilities currently use steam to heat water, resulting in persistently high energy costs. How to further reduce energy expenses?
Using heat pump technology for hot water production + wastewater heat recovery can dramatically cut energy costs.

Heat pump hot water production + heat recovery system diagram

[Diagram: Heat pump hot water production + heat recovery system]

Item	Steam	Heat Pump	Notes
Energy Required per Ton of Hot Water	0.092 tons	18.3 kWh	Heat pump COP 3.5
Energy Unit Cost	360 CNY/ton	0.9 CNY/kWh
Cost per Ton of Hot Water	33 CNY	16.5 CNY	Savings per ton: 16.5 CNY
Return on Investment	Based on 1 ton/day hot water production, 8,000 CNY installation cost — payback: 485 days = 1.35 years

RBHG-150G RBHG-180G

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