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DESIGN OF HEATING, VENTILATION AND AIR CONDITIONING INSTALLATIONS
TEMPEX Ltd. has an experienced and motivated team of HVAC designers located in Plovdiv and Sofia.
You need a HVAC design for:
- Business building
- Hotel
- Hospital
- Restaurant
- Production plant
- School / Day care
- Store
- Condominium
- Family house
- Apartment
Let us do it for you!
With TEMPEX, investors find the most effective solution for their needs. A good project can save you a large part of the initial investment and subsequent operating costs.
When designing, we rely on modern energy-efficient and ecological facilities and installations. In this way, we achieve optimal results for our clients, which makes them more competitive in their field.
| We specialize in: | |
|---|---|
| VRF installations | Air conditioning of productions |
| Heat pump systems | General exchange and local ventilation |
| Chiller systems | Production technology lines |
| Floor heating | Heating installations with boilers |
| Installations with climate chambers | Smoke exhaust |
| Supply and suction installations with recuperators | Demister installations for swimming pools |
RICH EXPERIENCE
We, the designers from TEMPEX, have many years of experience in the HVAC field. We will understand and respond to every single specificity related to your project. Your project will be carried out professionally, it will comply with the current regulations and modern world trends in the field of air conditioning.
All these years we have designed different types of installations. A large part of the designed sites are implemented by our company. We enrich our experience in the implementation, operation and maintenance of the installations.
OUR LATEST PROJECTS
Energy Efficiency Design
Energy Efficiency is a mandatory part of the project documentation of any new object or reconstruction, renovation, major repair, remodeling, upgrade and extension of existing residential and non-residential buildings.
Our design team also offers this service to our investors and clients. With the Energy Efficiency calculations, we determine the necessary thermal insulation of the external enclosing structures of the building, the need to lay insulation on internal walls, floors and ceilings between heated and unheated rooms. We make details for every wall, floor and roof.
Fence details - external walls
1. Wienerberger bricks 25cm + EPS 10cm
- Mineral plaster c δ=15 mm; λ=0.7 W/m°C
- EPS- expanded polystyrene c δ=100 mm; λ=0.032 W/m°C
- Masonry from Wienerberger bricks 250mm c δ=250 mm; λ=0.26 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,040 + 0,015/0,700 + 0,100/0,032 + 0,250/0,260 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 4,3057 [m² °C/W] → U = 0,2322 [W/m² °C]
2. Reinforced concrete 25 cm + EPS 10 cm
- Mineral plaster c δ=15 mm; λ=0.7 W/m°C
- EPS- expanded polystyrene c δ=100 mm; λ=0.032 W/m°C
- Reinforced concrete c δ=250 mm; λ=1.63 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,040 + 0,015/0,700 + 0,100/0,032 + 0,250/1,630 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 3,4976 [m² °C/W] → U = 0,2859 [W/m² °C]
2. Wienerberger bricks 25cm + EPS 10cm + cam. lining
- Facing stone c δ=30 mm; λ=1.16 W/m°C
- Glue c δ=10 mm; λ=0.7 W/m°C
- EPS- expanded polystyrene c δ=100 mm; λ=0.032 W/m°C
- Masonry from Wienerberger bricks 250mm c δ=250 mm; λ=0.26 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,040 + 0,030/1,160 + 0,010/0,700 + 0,100/0,032 + 0,250/0,260 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 4,3245 [m² °C/W] → U = 0,2312 [W/m² °C]
4. Reinforced concrete 25 cm + EPS 10 cm with stone lining
- Facing stone c δ=30 mm; λ=1.16 W/m°C
- Glue c δ=10 mm; λ=0.7 W/m°C
- EPS- expanded polystyrene c δ=100 mm; λ=0.032 W/m°C
- Reinforced concrete c δ=250 mm; λ=1.63 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,040 + 0,030/1,160 + 0,010/0,700 + 0,100/0,032 + 0,250/1,630 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 3,5163 [m² °C/W] → U = 0,2844 [W/m² °C]
5. Ventilated facade Etalbond + 10 cm cam. cotton wool + Wienerberger bricks 25 cm
- Etalbond c δ=4 mm; λ=0.29 W/m°C
- Air layer c δ=10 mm; R=0.15 m² °C/W
- Vapor insulation c δ=1 mm; λ=0.17 W/m°C
- Stone wool c δ=100 mm; λ=0.035 W/m°C
- Masonry from Wienerberger bricks 250mm c δ=250 mm; λ=0.26 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,040 + 0,004/0,290 + 0,150 + 0,001/0,170 + 0,100/0,035 + 0,250/0,260 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 4,1861 [m² °C/W] → U = 0,2389 [W/m² °C]
6. Ventilated facade Etalbond + 10 cm stone wool + reinforced concrete 25 cm
- Etalbond c δ=4 mm; λ=0.29 W/m°C
- Air layer c δ=10 mm; R=0.15 m² °C/W
- Vapor insulation c δ=1 mm; λ=0.17 W/m°C
- Stone wool c δ=100 mm; λ=0.035 W/m°C
- Reinforced concrete c δ=250 mm; λ=1.63 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,040 + 0,004/0,290 + 0,150 + 0,001/0,170 + 0,100/0,035 + 0,250/1,630 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 3,378 [m² °C/W] → U = 0,296 [W/m² °C]
Fence details - internal walls
7. Тухли Винербергер 25см
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
- Masonry from Wienerberger bricks 250mm c δ=250 mm; λ=0.26 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,130 + 0,015/0,540 + 0,250/0,260 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 1,2771 [m² °C/W] → U = 0,783 [W/m² °C]
8. Тухли Винербергер 12см
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
- Masonry from Wienerberger bricks 120mm c δ=120 mm; λ=0.34 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,130 + 0,015/0,540 + 0,120/0,340 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 0,6685 [m² °C/W] → U = 1,4959 [W/m² °C]
9. Стоманобетон 25 см
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
- Reinforced concrete c δ=250 mm; λ=1.63 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,130 + 0,015/0,540 + 0,250/1,630 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 0,4689 [m² °C/W] → U = 2,1325 [W/m² °C]
10. Kalkan bricks Wienerberger 25cm + EPS 3cm + reinforced concrete 25cm
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
- Masonry from Wienerberger bricks 250mm c δ=250 mm; λ=0.26 W/m°C
- EPS- expanded polystyrene c δ=30 mm; λ=0.032 W/m°C
- Air layer c δ=20 mm; R=0.14 m² °C/W
- Reinforced concrete c δ=250 mm; λ=1.63 W/m°C
- Lime plaster-internal c δ=15 mm; λ=0.54 W/m°C
Calculation of actual wall resistance:
Ro = 0,130 + 0,015/0,540 + 0,250/0,260 + 0,030/0,032 + 0,140 + 0,250/1,630 + 0,015/0,540 + 0,130
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 2,508 [m² °C/W] → U = 0,3987 [W/m² °C]
11. Arm. concrete floor with granite tiles + built-in underfloor heating and XPS 5 cm
- Granite tiles c δ=10 mm; λ=1.05 W/m°C
- Glue c δ=10 mm; λ=0.7 W/m°C
- Reinforced ceramic screed with floor heating pipes c δ=70 mm; λ=0.93 W/m°C
- XPS (extruded polystyrene) c δ=30 mm; λ=0.035 W/m°C
- Reinforced concrete pavement c δ=100 mm; λ=1.63 W/m°C
- Polyethylene foil c δ=2 mm; λ=0.17 W/m°C
- XPS (extruded polystyrene) c δ=50 mm; λ=0.035 W/m°C
- Polyethylene foil c δ=2 mm; λ=0.17 W/m°C
- Rammed ballast c δ=200 mm; λ=1.16 W/m°C
- Compacted terrain c δ=200 mm; λ=1.16 W/m°C
Calculation of actual wall resistance:
Ro = 0,170 + 0,010/1,050 + 0,010/0,700 + 0,070/0,930 + 0,030/0,035 + 0,100/1,630 + 0,002/0,170 + 0,050/0,035 + 0,002/0,170 + 0,200/1,160 + 0,200/1,160
12. Reinforced concrete 16 cm with built-in floor heating + EPS 10 cm
- Granite tiles c δ=10 mm; λ=1.05 W/m°C
- Reinforced ceramic screed with floor heating pipes c δ=70 mm; λ=0.93 W/m°C
- XPS (extruded polystyrene) c δ=30 mm; λ=0.035 W/m°C
- Reinforced concrete c δ=160 mm; λ=1.63 W/m°C
- EPS- expanded polystyrene c δ=100 mm; λ=0.032 W/m°C
- Mineral plaster c δ=15 mm; λ=0.7 W/m°C
Calculation of actual wall resistance:
Ro = 0,130 + 0,010/1,050 + 0,070/0,930 + 0,030/0,035 + 0,160/1,630 + 0,100/0,032 + 0,015/0,700 + 0,040
Calculation of the actual coefficient of heat transfer of the wall:
Ro = 4,3565 [m² °C/W] → U = 0,2295 [W/m² °C]
Come to us if you want:
- Your building should be well insulated, with effective systems for maintaining the microclimate and minimal operating costs;
- To calculate the energy consumption indicators of your object and compare it with the scale of energy consumption classes for the different categories of buildings;
- Energy-saving building, with a high degree of residential comfort with extremely low energy consumption.
Power consumption classes
For residential buildings
For hotels
For commercial buildings
For healthcare buildings
For administrative buildings
For buildings for culture and art
COMMING SOON
OUR TEAM
Chief HVAC Designer
eng. Ivanka Georgieva
Master's degree - Heat and mass transfer technology, TU Varna
Founding member of KIIP to the HEATING, VENTILATION, AIR CONDITIONING, REFRIGERATION, HEAT AND GAS SUPPLY section since 2003 with full legal capacity
HVAC Designer
eng. Nikolina Boneva
Master's degree - Heat and mass transfer technology, UHT Plovdiv
A member of KIIP with full legal capacity
HVAC Designer
eng. Antoan Ganchev
Master's degree - Heat Engineering
A member of KIIP with full legal capacity
HVAC Designer
eng. Dobromir Takuchev
Master's degree - Heat Engineering
VRF and water installation specialist
HVAC Designer
eng. Mihail Banov
Master's degree - Heat Engineering
Air conditioning and ventilation specialist
What we can offer?
- Projects tailored to modern technologies
- Professional and creative approach
- Attention to the details
- Communication and understanding
- Expert consultation
- Full responsibility
- Problem solving
- On-site tours
- Reengineering and innovation
How we operate?
- Meeting with the Investor
- Discussion of the assignment
- Offering options
- Choice of concept
- Preparation of conceptual project
- Coordination with individual specialties
- Finalization of a technical project
It is a tradition for our team to fully recharge after handing over a large-scale project. The mountain fills us with smiles and energy for new work successes.
We are ready for the next challenge!
Trust our extensive design experience to create the perfect project together.
CUSTOMERS AND PARTNERS
