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TARlF DASAR LlSTRlK

(1) Tarif tenaga listrik yang disediakan oleh Perusahaan Perseroan (Persero) PT Perusahaan Listrik Negara dinyatakan dalam Tarif Dasar Listrik berdasarkan golongan tarif.

(2) Tarif Dasar Listrik sebagaimana dimaksud pada ayat (1) terdiri atas tarif listrik reguler dan tarif listrik prabayar.

(3) Tarif listrik reguler sebagaimana dimaksud pada ayat (2) merupakan tarif listrik yang dibayarkan setelah pemakaian tenaga listrik oleh konsumen.

(4) Tarif listrik prabayar sebagaimana dimaksud pada ayat (2) merupakan tarif listrik yang dibayarkan sebelum pemakaian tenaga listrik oleh konsumen.

Tarif Dasar Listrik untuk keperluan Rumah Tangga, terdiri atas:

1. Golongan tarif untuk keperluan rumah tangga kecil pada tegangan rendah, dengan daya 450 VA s.d. 2.200 VA (R-1 ITR);

2. Golongan tarif untuk keperluan rumah tangga menengah pada tegangan rendah, dengan daya 3.500 VA s.d. 5.500 VA (R-2/TR);

3. Golongan tarif untuk keperluan rumah tangga besar pada tegangan rendah, dengan daya 6.600 VA ke atas (R-3/TR),

TARlF DASAR LlSTRlK UNTUK KEPERLUAN RUMAH TANGGA

No GOL.
TARlF
BATAS
DAYA
REGULER

PRA BAYAR

(Rp/kWh)

BlAYA BEBAN

(Rp/kVA/bulan)

BlAYA PEMAKAIAN

(Rp/kWh)

1 R-1/TR 450 VA 11.000

Blok I : 0 s.d. 30 kwh : 169

Blok II : di atas 30 kwh
s.d. 60 kwh : 360

Blok Ill : di atas 60 kwh : 495

415
2 R-1/TR 900 VA 20.000

Blok I : 0 s.d. 20 kwh : 275

Blok II : di atas 20 kwh
s.d. 60 kwh : 445

Bloklll : diatas60kWh : 495

605
3 R-1/TR 1.300 VA *) 790 790
4 R-1/TR 2.200 VA *) 795 795
5 R-2/TR

3.500 s.d

5.500 VA

*) 890 890
6 R-3/TR 6.600 VA keatas **)

Blok I : HI x 890

Blok II : H2 x 1.380

1.330

Catatan :

*) Diterapkan Rekening Minimum (RM):

RMI = 40 (Jam Nyala) x Daya tersambung (kVA) x Biaya Pemakaian.

**) Diterapkan Rekening Minimum (RM):

RM2 = 40 (Jam Nyala) x Daya tersambung (kVA) x Biaya Pemakaian Blok I.

Jam nyala : kwh per bulan dibagi dengan kVA tersambung.

HI : Persentase batas hemat terhadap jam nyala rata-rata nasional x daya tersambung (kVA).

H2 : Pemakaian listrik (kwh) - HI.

Besar persentase batas hemat dan jam nyala rata-rata nasional ditetapkan oleh Direksi Perusahaan
Perseroan (Persero) PT Perusahaan Listrik Negara dengan persetujuan Menteri Energi dan Sumber Daya
Mineral.

Tarif Dasar Listrik untuk keperluan Industri, terdiri atas:

1. Golongan tarif untuk keperluan industri kecillindustri rumah tangga pada tegangan rendah, dengan daya 450 VA s.d. 14 kVA (I-1lTR);

2. Golongan tarif untuk keperluan industri sedang pada tegangan rendah, dengan daya di atasl4 kVA s.d. 200 kVA (I-2/TR);

3. Golongan tarif untuk keperluan industri menengah pada tegangan menengah, dengan daya di atas 200 kVA (I-3/TM);

4. Golongan tarif untuk keperluan industri besar pada tegangan tinggi, dengan daya 30.000 kVA ke atas (1-4/TT),

TARIF DASAR LISTRIK UNTUK KEPERLUAN INDUSTRI

No. GOL.
TARlF
BATAS
DAYA
REGULER

PRA BAYAR

(Rp/kWh)

BlAYA BEBAN

(Rp/kVA/bulan)

BlAYA PEMAKAIAN

(Rp/kWh)

1 I-1/TR 450 VA 26.000 Blok I : 0 s.d. 30 kwh . 160
Blok I1 : di atas 30 kwh : 395
485
2 I-1/TR 900 VA 31.500 Blok I : 0 s.d. 72 kwh : 315
Blok ll : di atas 72 kwh : 405
600
3 I-1/TR 1.300 VA *) 765 765
4 I-1/TR 2.200 VA *) 790 790
5 I-1/TR

3.500 VA s.d.

14 kVA

*) 915 915
6 I-2/TR di atas 14
kVA s.d. 200
kVA
**)

Blok WBP = K x 800
Blok LWBP =
kVArh - 875 ****)

 

-
7 I-3/TR di atas 200
kVA
**) Blok WBP = K x 680
Blok LWBP = 680
kVArh = 735 ****)
-
8 I-4/TR 30.000 kVA
ke atas
***) Blok WBP dan LWBP = 605
kVArh = 605 ****)
-

Catatan :

*)   Diterapkan Rekening Minimum (RM):

      RM1 = 40 (Jam Nyala) x Daya tersambung (kVA) x Biaya Pemakaian.

**)   Diterapkan Rekening Minimum (RM):

       RM2 = 40 (Jam Nyala) x Daya tersambung (kVA) x Biaya Pemakaian LWBP.

***)  Diterapkan Rekening Minimum (RM):

       RM3 = 40 (Jam Nyala) x Daya tersambung (kVA) x Biaya Pemakaian WBP dan LWBP.

       Jam nyala : kwh per bulan dibagi dengan kVA tersambung.

****) Biaya kelebihan pemakaian daya reaktif (kVArh) dikenakan dalam ha1 faktor daya rata-rata setiap bulan
kurang dari 0,85 (delapan puluh lima per seratus).

K : Faktor perbandingan antara harga WBP dan LWBP sesuai dengan karakteristik beban sistem
kelistrikan setempat (1,4 S K S 2), ditetapkan oleh Direksi Perusahaan Perseroan (Persero)
PT Perusahaan Listrik Negara.

WBP : Waktu Beban Puncak.

LWBP : Luar Waktu Beban Puncak.


 
How Solar Charge Controller Works

Solar charge controller, is an important component in the Solar Power Plant. Solar charge controller functions to:

* Charging mode: Charging the battery (when the battery is charged, keep charging the battery if full).
* Operation mode: Use the battery to the load (service disconnected the battery to the load if the batteries have started to 'empty').

Solar Charge Controller Charging Mode

In charging mode, the battery is generally charged with three stage charging method:

* Phase bulk: the batteries will be in-charge in accordance with the voltage set-up (bulk - between 4.14 - 6.14 Volt) and taken in a maximum flow from the solar cell. At the time of the battery voltage is already on the setup (bulk) absorption phase begins.
* Phase absorption: In this phase, the battery voltage will be maintained in accordance with the bulk stress, until the solar charge controller timer (typically one hour) is reached, the current flowed down to reach the capacity of the battery.
* Phase flloat: batteries will be maintained at a float voltage setting (typically 4.13 - 7.13 Volt). Expenses connected to the battery can use a maximum flow from the solar cell at this stage.

Stage charging solar controller
Battery Temperature Sensor

For solar charge controller which is equipped with a battery temperature sensor. Charging voltage is adjusted with the temperature of the battery. With this sensor obtained from the optimum and optimum charging of the battery life.

If the solar charge controller does not have a battery temperature sensor, then the charging voltage should be regulated, adjusted for ambient temperature and battery type.
Solar Charge Controller Mode Operation

In this mode, the battery will serve the load. If there is over-discharge ataun over-load, then the battery will be released from the load. It is useful to prevent damage from battery.

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Solar Charge Controller - Solar Controller

Solar Charge Controller is an electronic device used to regulate the direct current into the  battery charged and taken from the battery to the load.

Solar charge controller set overcharging (extra charge - because the batteries are 'full') and the excess voltage from the solar cells. Excess voltage and charging will reduce battery life.

Solar charge controller to apply the technology Pulse width modulation (PWM) to regulate the charging function and the release of flows from the battery to the load.

Solar cell 12 Volt generally have a output voltage 16-21 Volt.

So without solar charge controllers, batteries will be damaged by over-charging and voltage instability.

General in-charge battery voltage of 14 - 14.7 Volt.

Some functions of the detail of the solar charge controller is as follows:

* Set the current for charging the battery, avoid overcharging, and transient overvoltage.
* Manage the flow of the released / taken from the battery so the battery is not 'full discharge', and overloading.
* Monitoring the battery temperature

To buy a solar charge controller that must be considered are:

* Voltage 12 Volt DC / 24 Volt DC
* The ability (in direct current) from the controller. For example 5 Ampere, 10 Ampere, etc..
* Full charge and low voltage cut

As already mentioned above solar charge controllers which usually have the ability detect whether the battery battery capacity. When the battery is fully charged, automatically charging current from the solar cell stops. Detection mode is through the monitor battery voltage level. Solar charge controller will charge the battery until a certain voltage level, then if the voltage drop, then the battery will be recharged.

Solar Charge Controller usually consists of: an input (two terminals) connected to the output of  solar cell, one output (two terminals) connected to the battery / batteries and one output (two terminals) connected to the load (load). DC current from the battery can not be entered into solar cell because there is usually a 'diode protection' that just passing DC current from solar cell to the battery, not vice versa.

Charge Controller and some even have more than one resource, that is not only coming from the sun, but also can come from wind power or micro-hydro. In the market has found many charge controllers 'tandem' which has two inputs originating from the sun and wind. To this energy produced more than doubled since the wind can blow at any time, so the limited time that can not be supplied on a full solar energy, can be supported by wind power. If the average wind speed is realized then the power of electricity per month can be much larger than the sun's energy.
Solar Charge Controller Technology

There are two types of technology commonly used by the solar charge controller: pwm solar charge controller

* PWM (Pulse Wide Modulation), as the name using 'wide' pulse of electrical on and off, thereby creating as if the electrical sine wave form.





* MPPT (max Power Point Tracker), a more efficient conversion of DC to DC (Direct Current). MPPT can take power from the PV max. MPPT charge controllers can store excess power not used by the load to the battery, and if the required load power is greater than the power generated by PV, then the power can be drawn from the battery.

Excess MPPT in this illustration : solar cell sizes 120th Watt, has a characteristic max 17.1 Volt Power Voltage and Current Power max 7:02 Amperes. In addition to MPPT solar charge controller and battery voltage of 4.12 volts, the mean power produced is 4.12 Volts x Amperes = 87.05 Watt 7:02. With MPPT, the Ampere that can be given is about 120W: 12.4 of V = 9.68 Amperes.

The technology is rarely used, but very cheap, is Type 1 or 2 Stage Control, with relay or transistor. Relay function is to short or to disconnect the battery from the solar cell.


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