Reconstruction project of the central heat station (CTP) in the village. Cedar-2 - Thesis, sections: TX, EM, EO, AK

Added: 09.07.2014
Size: 15 MB
Downloads: 5

Find out how to download this material

Telegram bot for searching materials

Drawings purchasing

Subscribe to receive an information about new materials:

t.me/alldrawings

vk.com/alldrawings

Description

The project contains: - DBE - explanatory note with description of equipment operation and samples. - TX - process equipment binding. There are 3D drawings and cuts. - EM - connection of equipment to power supply. - EO - electrical lighting. - AK - Automation, instrument connection diagrams, cable logs

Project's Content

rekonstrukcija_teplovogo_punktaeomthak.rar [ 15 MB ]

проект ЦТП

Раздел_1_ПЗ

Пояснительная записка.doc [ 2 MB

]

00.00_Обложка.dwg [ 38 KB

]

01.00_Титул.dwg [ 39 KB

]

02.00_Содержание.dwg [ 158 KB

]

03.00_Состав проекта.dwg [ 98 KB

]

Раздел_3_ЭМ

01.01_Общие данные.dwg [ 99 KB

]

01.02_Общие_данные.dwg [ 36 KB

]

01.03_Общие_данные.dwg [ 51 KB

]

02.00_Расчет эл.нагрузок.dwg [ 125 KB

]

03.00_Расчет сеч.кабелей.dwg [ 128 KB

]

04.00_Схема эл снабжен.dwg [ 139 KB

]

05.00_ШР.Принцип.схема.dwg [ 143 KB

]

06.00_ШУН.Принцип.схема.dwg [ 117 KB

]

07.00_Шкаф Ш.АВР.Схема эл.принц.dwg [ 127 KB

]

08.01_Разводка кабелей.dwg [ 181 KB

]

08.02_Разводка кабелей.dwg [ 42 KB

]

09.00_Кабельнотрубный журнал.dwg [ 127 KB

]

10.00_Трубная разводка.dwg [ 181 KB

]

11.00_Заземление.dwg [ 137 KB

]

12.00_Уравнив. потенц..dwg [ 108 KB

]

ОЛ_Опросный лист.dwg [ 101 KB

]

С.01_Начало.dwg [ 117 KB

]

С.02_Продолжение.dwg [ 61 KB

]

С.03_Продолжение.dwg [ 58 KB

]

Раздел_4_ЭО

01.01_Общие данные.dwg [ 99 KB

]

01.02_Общие данные.dwg [ 47 KB

]

02.00_Щиток.dwg [ 126 KB

]

03.00_План.dwg [ 123 KB

]

С.01_Начало.dwg [ 120 KB

]

С.02_Продолжение.dwg [ 61 KB

]

С.03_Продолжение.dwg [ 63 KB

]

Раздел_2_ТХ

01.01_Общие данные.dwg [ 101 KB

]

01.02_Общие_данные.dwg [ 48 KB

]

01.03_Общие_данные.dwg [ 64 KB

]

01.04_Общие_данные.dwg [ 63 KB

]

01.05_Общие_данные.dwg [ 47 KB

]

02.01_Принц_схема.dwg [ 221 KB

]

02.02_Спец.dwg [ 69 KB

]

02.03_Трубы.dwg [ 56 KB

]

03.00_Ситуац_план.dwg [ 5 MB

]

04.00_План оборуд.dwg [ 187 KB

]

05.00_План_труб.dwg [ 419 KB

]

06.01_Разрез 1.dwg [ 217 KB

]

06.02_Разрез 2.dwg [ 207 KB

]

06.03_Разрез 3.dwg [ 176 KB

]

06.04_Разрез 4.dwg [ 327 KB

]

06.05_Разрез 5.dwg [ 167 KB

]

07.01_Обвязка.dwg [ 5 MB

]

07.02_Обвязка.dwg [ 5 MB

]

07.03_Обвязка.dwg [ 5 MB

]

07.04_Обвязка.dwg [ 5 MB

]

08.01_Вед_изол.dwg [ 107 KB

]

08.02_Расч_изол.dwg [ 64 KB

]

09.01_План_дренаж.dwg [ 115 KB

]

09.02_Схема_дренаж.dwg [ 50 KB

]

10.00_Вентиляция.dwg [ 111 KB

]

С.01_Начало.dwg [ 122 KB

]

С.02_Продолжение.dwg [ 67 KB

]

С.03_Продолжение.dwg [ 68 KB

]

С.04_Продолжение.dwg [ 61 KB

]

С.05_Продолжение.dwg [ 67 KB

]

С.06_Продолжение.dwg [ 67 KB

]

С.07_Продолжение.dwg [ 68 KB

]

С.08_Продолжение.dwg [ 66 KB

]

С.09_Продолжение.dwg [ 75 KB

]

Раздел_5_АК

01.01_Общие данные.dwg [ 117 KB

]

01.02_Общие_данные.dwg [ 62 KB

]

01.03_Общие_данные.dwg [ 59 KB

]

02.01_Принц_схема.dwg [ 143 KB

]

02.02_Перечень_сигналов.dwg [ 70 KB

]

03.00_Рег. темп. Схема.dwg [ 141 KB

]

04.00_Контроль_схема.dwg [ 137 KB

]

05.00_Карта_параметров.dwg [ 129 KB

]

06.00_ШУН. Схема.dwg [ 119 KB

]

07.00_План_трасс.dwg [ 395 KB

]

08.01_Кабельный_журнал.dwg [ 125 KB

]

08.02_Кабельный_журнал.dwg [ 53 KB

]

09.01 Отборное устройство датчик.dwg [ 145 KB

]

09.02_Отборное устройство манометр.dwg [ 75 KB

]

10.00 Установка КИП термопреобразователь.dwg [ 118 KB

]

11.00 Установка биметаллических термометров на трубопроводах.dwg [ 119 KB

]

С.01_Начало.dwg [ 120 KB

]

С.02_Продолжение.dwg [ 65 KB

]

С.03_Продолжение.dwg [ 74 KB

]

С.04_Продолжение.dwg [ 70 KB

]

С.05_Продолжение.dwg [ 59 KB

]

Additional information

2. Integrated Automation

2.1. General part

The CTP automation system is designed to effectively solve problems without direct human intervention. CTP houses equipment, valves, monitoring, control and automation devices, through which:

• regulation of thermal energy supply for heating of buildings;

• protection of local systems from emergency increase of coolant parameters;

• control of pumps actuation and disconnection (actuation of standby pumps in case of main failure).

• water treatment for hot water supply system;

• monitoring of coolant parameters;

• commercial accounting of heat and water consumption.

The mode of operation of automation systems is constant throughout the year, with the exception of periods of scheduled scheduled and forced repairs.

2.2. Temperature control of hot water supply (HWS).

To maintain the specified temperature of hot water, a control valve installed on the supply pipeline of the network coolant supplied to the second stage of the heat exchanger of the hot water supply system is used. The stem of the VB2 type control valve is moved by an electric actuator (AMV 30 drive), which receives a command from the ECL Comfort 300 controller when the hot water temperature deviates from the set one.

Temperature control in the hot water supply system is carried out using a sensor installed on the hot water pipeline to consumers. The sensor signal corresponding to the current hot water temperature value is supplied to the ECL Comfort 301 controller and is converted into a command to the control valve actuator.

Control of the specified hot water temperature in the GVA system is carried out according to PID - regulation law.

The control algorithm allows you to adjust the temperature of hot water from the ECL Comfort 300 regulator from plus 45 ° C to plus 70 ° C.

The transition time shall be determined during setup and shall not exceed 5 minutes.

2.3. Temperature control in the heating system.

For heat supply to consumers, a dependent connection of the heating system of a residential building with the installation of mixing pumps is adopted .

A control valve is installed on the heating supply pipeline from the heat network, which changes the coolant flow rate through heat exchangers.

The temperature of the coolant in the building heating system is controlled according to the approved temperature schedule, depending on the outside air temperature. The outdoor temperature sensor is located on the north side of the building outside the lighting area with direct sunlight.

Information from temperature sensors is transmitted to ECL Comfort 300 regulator and converted into commands to control valve actuator. Temperature control in the heating system is carried out according to PID - the regulation law.

When the temperature in the feed line deviates from the schedule, the ECL Comfort 300 controller commands the actuator of the control valve. Movement of the control valve rod ensures change of coolant flow rate from the heat network through heat exchangers.

Temperature deviation in the heating system supply pipeline from the specified one shall not exceed ± 1.5 ° С.

ECL Comfort 300 regulator ensures that the temperature of the coolant returned to the heating system is not exceeded by the temperature schedule.

2.4. Maintain the assigned MV pressure.

The process part of the design provides for maintaining the specified pressure in the supply pipeline of the GVA. To maintain the specified pressure, pressure increase pumps WILO MVI 16036 are installed on the CBS pipeline. A control cabinet with frequency converters is used for automatic pressure maintenance.

Failover

If one of the pumps indicates a fault, it is immediately shut down and the standby one is switched on.

Lack of water

A special inlet pressure sensor, via a potential-free contact, signals the control system about a lack of water. After the set time T1, the pumps are shut down. During the set time T1 in case of lack of water the pumps are not switched off. The plant is switched on immediately after the water deficiency signal has disappeared.

In case of lack of water, the generalized fault alarm is activated and the dry LED lights up. Turning the red button resets the fault message and returns the generalized fault alarm to its original state.

Overpressure

To protect building engineering, an overpressure limit can be set. If the system pressure is kept above this limit for 3 seconds, the pumps are immediately shut down, the generalized fault alarm is turned on and the overpressure LED lights up.

As soon as the system pressure drops below the limit, the overpressure LED starts flashing. The unit should be re-activated 1 second after the system pressure drops below the set limit. After the fault is cleared, the generalized alarm and the overpressure LED return to their original state.

Drawings content

00.00_Обложка.dwg