[DAY] ONLINE PROCESSING OF NNSS AND SELF-CONSUMPTION REQUESTS FOR DISTRIBUTION. HYBRID MODE

hybrid The course can be followed face-to-face at the CETIT facilities, in Terres de l'Ebre, Carrer Mercaders, 2 de Tortosa or virtual in streaming mode.

It will be necessary to specify the modality when registering.

INDEX:

1. Introduction

1.1. Context of the Air Treatment Unit

1.2. Types- VAV- CAV

1.3. Components and functions

2. Required requirements in UTAs for ed. non-residential

2.1. Reliability Certifications

2.2. Mechanical Services of the UTA

2.2.1. Mechanical resistance of the casing

2.2.2. Thermal transmittance of the environment

2.2.3. Thermal bridging factor

2.2.4. Air tightness

2.2.5. Shunt leaks in filters

2.2.6. Acoustic insulation of the casing

2.3. Energy Labeling UTAs

3. Ventilation. Wellness and Hygiene

3.1.1. Nomenclature and symbology EN13779

3.1.2. Basic concepts. Free cooling and Recovery

3.1.3. Ventilation rates

3.1.3.1. RITE

3.1.3.2. Hospitals

3.1.3.3. Residential

4. Heat recovery from the extraction air. Energy Efficiency

4.1. RITE requirements (mod. 2021) and ECODESIGN Directive

4.2. Typology of heat recuperators

4.3. Thermodynamic benefits. Psychrometric processes, performance and application depending on location and use

4.3.1. Psychrometric processes

4.3.2. Sensitive Recovery. Recuperative plates-batteries

4.3.3. Rotary condensation recovery. Psychrometry and benefits

4.3.4. Enthalpic rotary recuperator. Psychrometry and benefits

4.3.5. Recovery rotary adsorption. Psychrometry and benefits

4.4. CASE STUDY: Air conditioner with plate recuperator VS Air conditioner with SORPTION recuperator

4.5. tightness Escape in recuperator. Hygienic arrangement

4.6. Practical examples 5. Free cooling (freecooling). Energy Efficiency

5.1. Psychrometric process. Typologies

5.2. requirements REGULATION 1253/2014 (Directive 2009/125/EC)

5.3. Mechanical bypass / Thermal bypass

5.4. Practical Case Bypass of the recuperator. Disposition within the UTA

5.5. Energy saving strategies. Control CO2 ppm

5.5.1. UTA A. Primary CAC (Decoupled Ventilation and Air Conditioning)

5.5.2. UTA A. Primary VAV (Decoupled Ventilation and Air Conditioning)

5.5.3. UTA Air Conditioning VAV (Ventilation and Air Conditioning coupled)

5.6. Regulation behaviours. tightness

6. Filtration. Wellness and hygiene

6.1. Typology and Classification of filters according to standard

6.2. Legislative requirements and recommendations

6.3. Arrangement of the filters inside the air conditioner

6.4. white rooms Air cleaning

6.5. Equivalence between international regulations

6.6. Energy labeling

6.7. Other filtration systems. Active polarization

6.8. Germicidal systems Photo-catalytic oxidation

7. Energy transport. ventilators

7.1. Basic concepts

7.2. Types of ventilators

7.3. characteristic curve

7.4. Radial fans

7.4.1. benefits

7.4.2. Cabal measurement

7.4.3. Design criteria. Arrangement inside the air conditioner

7.4.4. Practical example

7.4.5. Tandem fans. Recommendations

7.4.6. Tandem with backup fan. Precautions

7.4.7. Data for fan selection and sizing

7.4.7.1. Nominal information of the Fan – Motor

7.4.7.2. System information. Work point

7.4.8. Engine efficiency IE (International Efficiency). Standard IEC60034-30

8. Noise control in UTAs. sound level

8.1. sound source Acoustic attenuation

8.2. Basic concepts. Sum of sound sources

8.3. silencers Disposition within the UTA

8.4. Case study attenuation with mufflers

9. Energy Transfer. Finned tube exchangers (batteries)

9.1. Basic concepts

9.2. Functions and disposition within the UTA

9.3. Water batteries. Hydraulic connections. Thermal jump and temperature

9.4. applications Direct expansion batteries

9.5. example

9.6. Hospitals EN100713. Battery deployment

9.7. Arrangement of the battery inside the air conditioner. Sealing and hygiene

9.8. Battery protection in winter

9.8.1. Antifreeze - Glycol

9.8.2. Battery protection

9.8.3. Antifreeze bypass

9.9. Example direct expansion systems

10. Dehumidification

10.1. Cold water battery. Dehumidification capacity

10.2. Dehumidification calculation. Case study

11. Humidification

11.1. Typologies

11.1.1. isotherm

11.1.2. adiabatic

11.2. Case study Precautions

11.3. Adiabatic cooling Indirect

11.4. Case Study Adiabatic Cooling Vs Sorption

11.5. examples

12. Control

Cancellation of registrations:

Depending on the registrations made, the training action will be viable or not, for this reason it is important that you notify cancellations.

The cancellation must be communicated 48 hours before the start of the training through the email formacio@cetit.org, otherwise 100% of the amount of the training action will be invoiced.

Images and recording of the course: we inform you that, in compliance with the RGPD, the current legal regulations on data protection and Law 1/1982 on civil protection, right to honor, personal and family privacy and the image itself, photographs will be taken during the course and in certain cases they will be recorded and/or broadcast live. Under no circumstances will the name of the interested party be published. The image is used legitimately for the College's legitimate interest in promoting these courses and their possible subsequent viewing by attendees.

By attending, these images will be kept for as long as the course is uploaded to the platform. Once the period for viewing it later has passed, it will no longer be uploaded to the platform and the images will be deleted with appropriate security measures.

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