SlideShare a Scribd company logo
1 of 11
Download to read offline
Fuse
Simplified SPICE Behavioral Model



       All Rights Reserved Copyright (C) Bee Technologies Corporation 2011   1
Contents
1.Benefit of the Model
2.Model Feature
3.Parameter Settings
4.Fuse Specification (Example)
5.Fusing Time vs. DC Current
6.Fusing Time vs. Current Pattern
7.Specific Fuse Model

Simulation Index



             All Rights Reserved Copyright (C) Bee Technologies Corporation 2011   2
1. Benefit of the Model

• Easily create your own fuse models by setting a few
  parameters, that’s usually provided by the
  manufacturer’s datasheet.

• Enables circuit designer to safely test and optimize their
  circuit protection design, and to predict component and
  circuit stress under extreme conditions (e.g. at the fuse
  blow).

• The model is optimized to reduce the convergence error.



               All Rights Reserved Copyright (C) Bee Technologies Corporation 2011   3
2. Model Feature
The model accounts for:                                                          10

     • Current Rating

     • Fuse Factor                                                                1




                                                           Fusing Time (Sec.)
     • Internal Resistance
                                                                                 0.1
     • Normal Melting   I2t
Enable the model to simulate fusing time
(blow time) as a function of I2t.                                               0.01




The model can be used for testing the                                     0.001
blow time for the different current pattern.                                           0.1        1               10           100
                                                                                                  Fusing Current (A)

A one-shot switch, once fuse is opened it
cannot be closed.                                                               Fig.1 Fusing Time vs. Fusing Current Characteristic




                        All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                                      4
3. Parameter Settings
•      From the fuse specification, the model is characterized by setting parameters Irate, FF,
       Rint and I2t.

                                                              Model Parameters:
            U1                                                Irate = the current rating of fuse [A]

                                                              FF       = Fusing Factor, the ratio of the
                                                                         minimum fusing current (the current
            FUSE                                                         that fuse start to heat up) to Irate.
                                                                         (e.g. Irate =400mA and the minimum
            IRATE = 400m                                                 fusing current is 620mA then FF =
            FF = 1.55                                                    620m/400m = 1.55)

            RINT = 650m                                       Rint = internal resistance of fuse
            I2T = 0.024
                                                              I2t      = Normal Melting value [A2, seconds]
    Fig.2 Fuse model with default parameters



                              All Rights Reserved Copyright (C) Bee Technologies Corporation 2011             5
4. Fuse Specification (Example)
                                                                                     10
            Current      Internal          I2t   (A2,                                                 the minimum fusing current
 Part No.   Rating       R. max.          seconds                                                     is 620mA, FF = 20m/400m
                                                                                                      = 1.55
             (mA)         (m)               )                                        1




                                                               Fusing Time (Sec.)
CCF1N0.4        400             650           0.024
                                                                                     0.1
                              U1

                                                                                    0.01
                              FUSE
                              IRATE = 400m
                              FF = 1.55                                       0.001
                              RINT = 650m                                                  0.1    1                10              100

                              I2T = 0.024                                                        Fusing Current (A)




Fig.3 Shows the complete setting of fuse model parameters by using data from the
datasheet of CCF1N0.4 provided by KOA Speer Electronics, Inc.


                      All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                                                6
5. Fusing Time vs. DC Current
Simulation Result                                                                 Simulation Circuit

      10A
                                                                                        PARAMETERS:
            (960.962u,5.0000)                                                           dc_current = 1
                                                                                                                                sense
                                                                                                                 U1

             tF = 960.962usec. at IF = 5A                                                                        FUSE
                                                                                             I1                  IRATE = 400m
                      (6.0051m,2.0000)                                                       I1 = 0              FF = 1.55                  RL
                                                                                             I2 = {dc_current}   RINT = 650m                1
                                tF = 6.0051msec. at IF = 2A                                                      I2T = 0.024
                                                                                             T1 = 0
                                 (24.013m,1.0000)                                            T2 = 100n

     1.0A

                                       tF = 24.013msec. at IF = 1A                       0                                              0


                                                                                        *Analysis directives:
                                                                                        .TRAN 0 1s 500u 100u
                                                                                        .STEP PARAM dc_current LIST 1, 2, 5



    100mA
             1.0ms              10ms              100ms          1.0s
                 I(sense)
                                        Time


•      The simulation result shows the fusing times, tF, (the time that fuse blows) at
       the different fuse currents, IF .


                                         All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                                     7
5. Fusing Time vs. DC Current
Comparison Graph
                        10
                                                                                                          Measurement
                                                                                                          Simulation


                         1
 Fusing Time (Sec.)




                        0.1




                       0.01




                      0.001
                              0.1                      1                                     10                         100

                                                                 Fusing Current



        Graph shows the comparison result between the simulation result vs. the
        measurement data. The fusing current error (average from 0.001-10 sec.) = 4.9%


                                    All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                       8
6 Fusing Time vs. Current Pattern
Simulation Result                                                                Simulation Circuit
     2.0A
                                                                                                                        sense1
                                                                                                         U1

     1.5A                          tF = 149.796msec. for triangle wave
                                                                                                         FUSE
                                                                                           I1            IRATE = 400m
                                                (149.796m,959.222m)                        IOFF = 0      FF = 1.55                   RL1
                                                                                                         RINT = 650m                 1
     1.0A                                                                                  FREQ = 50
                                                                                                         I2T = 0.024
                                                                                           IAMPL = 1
                                                                                           PHASE = -90
                                                                                       0                                         0
     0.5A

                                                                                                                        sense2
                                                                                                         U2
       0A
                                                                                                         FUSE
                                                                                           I2            IRATE = 400m
    -0.5A                                                                                  TD = 0        FF = 1.55                   RL2
                                                                                           TF = 10m      RINT = 650m                 1
                                                                                                         I2T = 0.024
                                                                                           PW = 0
    -1.0A                                                                                  PER = 20m
                                                                                       0   I1 = -1                               0
                                                                                           I2 = 1
                          (59.503m,-987.814m)                                              TR = 10m
    -1.5A
                  tF = 59.503msec. for sine wave
    -2.0A                                                                             .TRAN 0 0.2s 0 100u
            0s    20ms 40ms 60ms 80ms 100ms        140ms      180ms
                 I(sense1)  I(sense2)
                                       Time



•      The simulation result shows the fusing times, tF, (the time that fuse blows)
       for the same peak current but different in current patterns(waveforms).


                                        All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                                9
7. Specific Fuse Model
                                                       Comparison Graph
                                                                             10
                                                                                                           Measurement
                                                                                                           Simulation

           U1                                                                 1
                                                                                                     Error reduce
                                                                                                       to 0.4%




                                                       Fusing Time (Sec.)
           CCF1N0_4                                                          0.1




 Model of fuse part number                                                  0.01

CCF10.4, all parameters and
  function are already set
                                                                       0.001
                                                                                   0.1   1            10             100

                                                                                         Fusing Current


If the most accurate result is required, we could provide the specific model that
optimized for each part number of fuse. The fusing current error (average from 0.001-
10 sec.) will reduce from 4.9% (simplified model) to 0.4% (specific fuse model)

                    All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                                  10
Simulation Index

Simulations                                                                              Folder name
1. Fusing Time vs. DC Current.................................. DC
2. Fusing Time vs. Current Pattern............................ Pattern




                   All Rights Reserved Copyright (C) Bee Technologies Corporation 2011                 11

More Related Content

What's hot

Structures for FIR systems
Structures for FIR systemsStructures for FIR systems
Structures for FIR systemsChandan Taluja
 
Simple model of DC Power Supply(LTspice)
Simple model of DC Power Supply(LTspice)Simple model of DC Power Supply(LTspice)
Simple model of DC Power Supply(LTspice)Tsuyoshi Horigome
 
3-Phase AC Motor Model (LTspice)
3-Phase AC Motor Model (LTspice)3-Phase AC Motor Model (LTspice)
3-Phase AC Motor Model (LTspice)Tsuyoshi Horigome
 
Circuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspice
Circuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspiceCircuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspice
Circuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspiceTsuyoshi Horigome
 
28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋
28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋
28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋Zih-Ming Yang
 
Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)
Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)
Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)Tsuyoshi Horigome
 
White paper on ESD protection for 40nm/28nm
White paper on ESD protection for 40nm/28nmWhite paper on ESD protection for 40nm/28nm
White paper on ESD protection for 40nm/28nmbart_keppens
 
4 Way traffic controll new
4 Way traffic controll new4 Way traffic controll new
4 Way traffic controll newMainak Nandi
 
Motor & generator protection example settings
Motor & generator protection example settingsMotor & generator protection example settings
Motor & generator protection example settingsH. Kheir
 
Ppt on power electronics
Ppt on power electronicsPpt on power electronics
Ppt on power electronicsShivani Mishra
 
Lista de exercícios potência ca e triângulo de potências
Lista de exercícios potência ca e triângulo de potênciasLista de exercícios potência ca e triângulo de potências
Lista de exercícios potência ca e triângulo de potênciasJoão Marcus Callegari
 
8051-mazidi-solution
8051-mazidi-solution8051-mazidi-solution
8051-mazidi-solutionZunAib Ali
 
LTspiceを活用した3相ACモータドライブ回路シミュレーション要約
LTspiceを活用した3相ACモータドライブ回路シミュレーション要約LTspiceを活用した3相ACモータドライブ回路シミュレーション要約
LTspiceを活用した3相ACモータドライブ回路シミュレーション要約Tsuyoshi Horigome
 
Design of FIR Filters
Design of FIR FiltersDesign of FIR Filters
Design of FIR FiltersAranya Sarkar
 
Delta connection (line and phase quantities)
Delta connection (line and phase quantities)Delta connection (line and phase quantities)
Delta connection (line and phase quantities)Keshav
 

What's hot (20)

Structures for FIR systems
Structures for FIR systemsStructures for FIR systems
Structures for FIR systems
 
Simple model of DC Power Supply(LTspice)
Simple model of DC Power Supply(LTspice)Simple model of DC Power Supply(LTspice)
Simple model of DC Power Supply(LTspice)
 
3-Phase AC Motor Model (LTspice)
3-Phase AC Motor Model (LTspice)3-Phase AC Motor Model (LTspice)
3-Phase AC Motor Model (LTspice)
 
Circuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspice
Circuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspiceCircuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspice
Circuit Simulation of LTC3105+Solar Cell(SPICE Model) Using LTspice
 
28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋
28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋
28.永磁發電機設計之磁石修弧對頓轉矩的改善策略 張書瑋
 
Tensão média e tensão eficaz
Tensão média e tensão eficazTensão média e tensão eficaz
Tensão média e tensão eficaz
 
Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)
Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)
Concept Kit 3-Phase AC Motor Drive Simulation (PSpice Version)
 
White paper on ESD protection for 40nm/28nm
White paper on ESD protection for 40nm/28nmWhite paper on ESD protection for 40nm/28nm
White paper on ESD protection for 40nm/28nm
 
4 Way traffic controll new
4 Way traffic controll new4 Way traffic controll new
4 Way traffic controll new
 
Metadyne control
Metadyne controlMetadyne control
Metadyne control
 
Motor & generator protection example settings
Motor & generator protection example settingsMotor & generator protection example settings
Motor & generator protection example settings
 
Ppt on power electronics
Ppt on power electronicsPpt on power electronics
Ppt on power electronics
 
Esd
EsdEsd
Esd
 
Lista de exercícios potência ca e triângulo de potências
Lista de exercícios potência ca e triângulo de potênciasLista de exercícios potência ca e triângulo de potências
Lista de exercícios potência ca e triângulo de potências
 
8051-mazidi-solution
8051-mazidi-solution8051-mazidi-solution
8051-mazidi-solution
 
LTspiceを活用した3相ACモータドライブ回路シミュレーション要約
LTspiceを活用した3相ACモータドライブ回路シミュレーション要約LTspiceを活用した3相ACモータドライブ回路シミュレーション要約
LTspiceを活用した3相ACモータドライブ回路シミュレーション要約
 
Sampling
SamplingSampling
Sampling
 
Design of FIR Filters
Design of FIR FiltersDesign of FIR Filters
Design of FIR Filters
 
Butterworth filter
Butterworth filterButterworth filter
Butterworth filter
 
Delta connection (line and phase quantities)
Delta connection (line and phase quantities)Delta connection (line and phase quantities)
Delta connection (line and phase quantities)
 

Viewers also liked

SPICE PARK ALL LIST of SEP2015
SPICE PARK ALL LIST of SEP2015SPICE PARK ALL LIST of SEP2015
SPICE PARK ALL LIST of SEP2015Tsuyoshi Horigome
 
Simple model of Lithium Ion Battery (PSpice)
Simple model of Lithium Ion Battery (PSpice)Simple model of Lithium Ion Battery (PSpice)
Simple model of Lithium Ion Battery (PSpice)Tsuyoshi Horigome
 
LTspiceを活用したSBDダイオードの損失計算
LTspiceを活用したSBDダイオードの損失計算LTspiceを活用したSBDダイオードの損失計算
LTspiceを活用したSBDダイオードの損失計算Tsuyoshi Horigome
 
SPICE PARK Update of SEP2015
SPICE PARK  Update of SEP2015SPICE PARK  Update of SEP2015
SPICE PARK Update of SEP2015Tsuyoshi Horigome
 
Fuses and its type in power system
Fuses and its type in power systemFuses and its type in power system
Fuses and its type in power system18061994
 
Simple mode of Li-ion battery (LTspice)
Simple mode of Li-ion battery (LTspice)Simple mode of Li-ion battery (LTspice)
Simple mode of Li-ion battery (LTspice)Tsuyoshi Horigome
 
ENERGY REGENERATING SYSTEM for HEV,EV using PSpice
ENERGY REGENERATING SYSTEM for HEV,EV using PSpiceENERGY REGENERATING SYSTEM for HEV,EV using PSpice
ENERGY REGENERATING SYSTEM for HEV,EV using PSpiceTsuyoshi Horigome
 
tranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And When
tranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And WhentranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And When
tranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And WhenDavid Peyruc
 
现代化敏捷测试工作者
现代化敏捷测试工作者现代化敏捷测试工作者
现代化敏捷测试工作者Yi Xu
 
UPB - Software is eating up the world
UPB - Software is eating up the worldUPB - Software is eating up the world
UPB - Software is eating up the worldEddy D. Sánchez
 
Inmigración Armenia
Inmigración ArmeniaInmigración Armenia
Inmigración ArmeniaLadesergio
 
Проектная деятельность учащихся на уроках информатики
Проектная деятельность учащихся на уроках информатики Проектная деятельность учащихся на уроках информатики
Проектная деятельность учащихся на уроках информатики Diana Der
 
BelalOssamaAbuLabanResume2016 - Copy
BelalOssamaAbuLabanResume2016 - CopyBelalOssamaAbuLabanResume2016 - Copy
BelalOssamaAbuLabanResume2016 - Copybelal abulaban
 
#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences
#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences
#CNX14 - Building Killer Apps - Moving Beyond Transactions to ExperiencesSalesforce Marketing Cloud
 

Viewers also liked (20)

Symbol of fuse pspice model
Symbol of fuse pspice modelSymbol of fuse pspice model
Symbol of fuse pspice model
 
Simple Model of Fuse(PSpice)
Simple Model of Fuse(PSpice)Simple Model of Fuse(PSpice)
Simple Model of Fuse(PSpice)
 
Simple Model of Fuse(LTspice)
Simple Model of Fuse(LTspice)Simple Model of Fuse(LTspice)
Simple Model of Fuse(LTspice)
 
SPICE PARK ALL LIST of SEP2015
SPICE PARK ALL LIST of SEP2015SPICE PARK ALL LIST of SEP2015
SPICE PARK ALL LIST of SEP2015
 
Simple model of Lithium Ion Battery (PSpice)
Simple model of Lithium Ion Battery (PSpice)Simple model of Lithium Ion Battery (PSpice)
Simple model of Lithium Ion Battery (PSpice)
 
LTspiceを活用したSBDダイオードの損失計算
LTspiceを活用したSBDダイオードの損失計算LTspiceを活用したSBDダイオードの損失計算
LTspiceを活用したSBDダイオードの損失計算
 
SPICE PARK Update of SEP2015
SPICE PARK  Update of SEP2015SPICE PARK  Update of SEP2015
SPICE PARK Update of SEP2015
 
Fuses and its type in power system
Fuses and its type in power systemFuses and its type in power system
Fuses and its type in power system
 
Simple mode of Li-ion battery (LTspice)
Simple mode of Li-ion battery (LTspice)Simple mode of Li-ion battery (LTspice)
Simple mode of Li-ion battery (LTspice)
 
Simple Model for SPICE
Simple Model for SPICESimple Model for SPICE
Simple Model for SPICE
 
ENERGY REGENERATING SYSTEM for HEV,EV using PSpice
ENERGY REGENERATING SYSTEM for HEV,EV using PSpiceENERGY REGENERATING SYSTEM for HEV,EV using PSpice
ENERGY REGENERATING SYSTEM for HEV,EV using PSpice
 
tranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And When
tranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And WhentranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And When
tranSMART Community Meeting 5-7 Nov 13 - Session 2: MongoDB: What, Why And When
 
现代化敏捷测试工作者
现代化敏捷测试工作者现代化敏捷测试工作者
现代化敏捷测试工作者
 
5° básico b semana 18 al 22 abril
 5° básico b  semana 18  al 22 abril 5° básico b  semana 18  al 22 abril
5° básico b semana 18 al 22 abril
 
UPB - Software is eating up the world
UPB - Software is eating up the worldUPB - Software is eating up the world
UPB - Software is eating up the world
 
Inmigración Armenia
Inmigración ArmeniaInmigración Armenia
Inmigración Armenia
 
Backlink service
Backlink serviceBacklink service
Backlink service
 
Проектная деятельность учащихся на уроках информатики
Проектная деятельность учащихся на уроках информатики Проектная деятельность учащихся на уроках информатики
Проектная деятельность учащихся на уроках информатики
 
BelalOssamaAbuLabanResume2016 - Copy
BelalOssamaAbuLabanResume2016 - CopyBelalOssamaAbuLabanResume2016 - Copy
BelalOssamaAbuLabanResume2016 - Copy
 
#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences
#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences
#CNX14 - Building Killer Apps - Moving Beyond Transactions to Experiences
 

Similar to SPICE Model of Fuse

2.ヒューズのシンプルモデル
2.ヒューズのシンプルモデル2.ヒューズのシンプルモデル
2.ヒューズのシンプルモデルTsuyoshi Horigome
 
ヒューズのスパイスモデル
ヒューズのスパイスモデルヒューズのスパイスモデル
ヒューズのスパイスモデルTsuyoshi Horigome
 
SPICE MODEL of RN1902AFS in SPICE PARK
SPICE MODEL of RN1902AFS in SPICE PARKSPICE MODEL of RN1902AFS in SPICE PARK
SPICE MODEL of RN1902AFS in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RN1904AFS in SPICE PARK
SPICE MODEL of RN1904AFS in SPICE PARKSPICE MODEL of RN1904AFS in SPICE PARK
SPICE MODEL of RN1904AFS in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RN1903AFS in SPICE PARK
SPICE MODEL of RN1903AFS in SPICE PARKSPICE MODEL of RN1903AFS in SPICE PARK
SPICE MODEL of RN1903AFS in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RN1964FS in SPICE PARK
SPICE MODEL of RN1964FS in SPICE PARKSPICE MODEL of RN1964FS in SPICE PARK
SPICE MODEL of RN1964FS in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of 1N5408 (Standard Model) in SPICE PARK
SPICE MODEL of 1N5408 (Standard Model) in SPICE PARKSPICE MODEL of 1N5408 (Standard Model) in SPICE PARK
SPICE MODEL of 1N5408 (Standard Model) in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RN1906AFS in SPICE PARK
SPICE MODEL of RN1906AFS in SPICE PARKSPICE MODEL of RN1906AFS in SPICE PARK
SPICE MODEL of RN1906AFS in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of 1N5408 (Professional Model) in SPICE PARK
SPICE MODEL of 1N5408 (Professional Model) in SPICE PARKSPICE MODEL of 1N5408 (Professional Model) in SPICE PARK
SPICE MODEL of 1N5408 (Professional Model) in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RF-500TB-1.5V in SPICE PARK
SPICE MODEL of RF-500TB-1.5V in SPICE PARKSPICE MODEL of RF-500TB-1.5V in SPICE PARK
SPICE MODEL of RF-500TB-1.5V in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RN1905AFS in SPICE PARK
SPICE MODEL of RN1905AFS in SPICE PARKSPICE MODEL of RN1905AFS in SPICE PARK
SPICE MODEL of RN1905AFS in SPICE PARKTsuyoshi Horigome
 
TLP180のスパイスモデル
TLP180のスパイスモデルTLP180のスパイスモデル
TLP180のスパイスモデルTsuyoshi Horigome
 
SPICE MODEL of IDT10S60C (Professional Model) in SPICE PARK
SPICE MODEL of IDT10S60C (Professional Model) in SPICE PARKSPICE MODEL of IDT10S60C (Professional Model) in SPICE PARK
SPICE MODEL of IDT10S60C (Professional Model) in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of D25XB80 (Standard Model) in SPICE PARK
SPICE MODEL of D25XB80 (Standard Model) in SPICE PARKSPICE MODEL of D25XB80 (Standard Model) in SPICE PARK
SPICE MODEL of D25XB80 (Standard Model) in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of MSE-500 in SPICE PARK
SPICE MODEL of MSE-500 in SPICE PARKSPICE MODEL of MSE-500 in SPICE PARK
SPICE MODEL of MSE-500 in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of KBU810 (Professional Model) in SPICE PARK
SPICE MODEL of KBU810 (Professional Model) in SPICE PARKSPICE MODEL of KBU810 (Professional Model) in SPICE PARK
SPICE MODEL of KBU810 (Professional Model) in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RF-500TB-0.5V in SPICE PARK
SPICE MODEL of RF-500TB-0.5V in SPICE PARKSPICE MODEL of RF-500TB-0.5V in SPICE PARK
SPICE MODEL of RF-500TB-0.5V in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of RN1963FS in SPICE PARK
SPICE MODEL of RN1963FS in SPICE PARKSPICE MODEL of RN1963FS in SPICE PARK
SPICE MODEL of RN1963FS in SPICE PARKTsuyoshi Horigome
 
Free SPICE Model of DG1E60 in SPICE PARK
Free SPICE Model of DG1E60 in SPICE PARKFree SPICE Model of DG1E60 in SPICE PARK
Free SPICE Model of DG1E60 in SPICE PARKTsuyoshi Horigome
 
SPICE MODEL of DTC363EK in SPICE PARK
SPICE MODEL of DTC363EK in SPICE PARKSPICE MODEL of DTC363EK in SPICE PARK
SPICE MODEL of DTC363EK in SPICE PARKTsuyoshi Horigome
 

Similar to SPICE Model of Fuse (20)

2.ヒューズのシンプルモデル
2.ヒューズのシンプルモデル2.ヒューズのシンプルモデル
2.ヒューズのシンプルモデル
 
ヒューズのスパイスモデル
ヒューズのスパイスモデルヒューズのスパイスモデル
ヒューズのスパイスモデル
 
SPICE MODEL of RN1902AFS in SPICE PARK
SPICE MODEL of RN1902AFS in SPICE PARKSPICE MODEL of RN1902AFS in SPICE PARK
SPICE MODEL of RN1902AFS in SPICE PARK
 
SPICE MODEL of RN1904AFS in SPICE PARK
SPICE MODEL of RN1904AFS in SPICE PARKSPICE MODEL of RN1904AFS in SPICE PARK
SPICE MODEL of RN1904AFS in SPICE PARK
 
SPICE MODEL of RN1903AFS in SPICE PARK
SPICE MODEL of RN1903AFS in SPICE PARKSPICE MODEL of RN1903AFS in SPICE PARK
SPICE MODEL of RN1903AFS in SPICE PARK
 
SPICE MODEL of RN1964FS in SPICE PARK
SPICE MODEL of RN1964FS in SPICE PARKSPICE MODEL of RN1964FS in SPICE PARK
SPICE MODEL of RN1964FS in SPICE PARK
 
SPICE MODEL of 1N5408 (Standard Model) in SPICE PARK
SPICE MODEL of 1N5408 (Standard Model) in SPICE PARKSPICE MODEL of 1N5408 (Standard Model) in SPICE PARK
SPICE MODEL of 1N5408 (Standard Model) in SPICE PARK
 
SPICE MODEL of RN1906AFS in SPICE PARK
SPICE MODEL of RN1906AFS in SPICE PARKSPICE MODEL of RN1906AFS in SPICE PARK
SPICE MODEL of RN1906AFS in SPICE PARK
 
SPICE MODEL of 1N5408 (Professional Model) in SPICE PARK
SPICE MODEL of 1N5408 (Professional Model) in SPICE PARKSPICE MODEL of 1N5408 (Professional Model) in SPICE PARK
SPICE MODEL of 1N5408 (Professional Model) in SPICE PARK
 
SPICE MODEL of RF-500TB-1.5V in SPICE PARK
SPICE MODEL of RF-500TB-1.5V in SPICE PARKSPICE MODEL of RF-500TB-1.5V in SPICE PARK
SPICE MODEL of RF-500TB-1.5V in SPICE PARK
 
SPICE MODEL of RN1905AFS in SPICE PARK
SPICE MODEL of RN1905AFS in SPICE PARKSPICE MODEL of RN1905AFS in SPICE PARK
SPICE MODEL of RN1905AFS in SPICE PARK
 
TLP180のスパイスモデル
TLP180のスパイスモデルTLP180のスパイスモデル
TLP180のスパイスモデル
 
SPICE MODEL of IDT10S60C (Professional Model) in SPICE PARK
SPICE MODEL of IDT10S60C (Professional Model) in SPICE PARKSPICE MODEL of IDT10S60C (Professional Model) in SPICE PARK
SPICE MODEL of IDT10S60C (Professional Model) in SPICE PARK
 
SPICE MODEL of D25XB80 (Standard Model) in SPICE PARK
SPICE MODEL of D25XB80 (Standard Model) in SPICE PARKSPICE MODEL of D25XB80 (Standard Model) in SPICE PARK
SPICE MODEL of D25XB80 (Standard Model) in SPICE PARK
 
SPICE MODEL of MSE-500 in SPICE PARK
SPICE MODEL of MSE-500 in SPICE PARKSPICE MODEL of MSE-500 in SPICE PARK
SPICE MODEL of MSE-500 in SPICE PARK
 
SPICE MODEL of KBU810 (Professional Model) in SPICE PARK
SPICE MODEL of KBU810 (Professional Model) in SPICE PARKSPICE MODEL of KBU810 (Professional Model) in SPICE PARK
SPICE MODEL of KBU810 (Professional Model) in SPICE PARK
 
SPICE MODEL of RF-500TB-0.5V in SPICE PARK
SPICE MODEL of RF-500TB-0.5V in SPICE PARKSPICE MODEL of RF-500TB-0.5V in SPICE PARK
SPICE MODEL of RF-500TB-0.5V in SPICE PARK
 
SPICE MODEL of RN1963FS in SPICE PARK
SPICE MODEL of RN1963FS in SPICE PARKSPICE MODEL of RN1963FS in SPICE PARK
SPICE MODEL of RN1963FS in SPICE PARK
 
Free SPICE Model of DG1E60 in SPICE PARK
Free SPICE Model of DG1E60 in SPICE PARKFree SPICE Model of DG1E60 in SPICE PARK
Free SPICE Model of DG1E60 in SPICE PARK
 
SPICE MODEL of DTC363EK in SPICE PARK
SPICE MODEL of DTC363EK in SPICE PARKSPICE MODEL of DTC363EK in SPICE PARK
SPICE MODEL of DTC363EK in SPICE PARK
 

More from Tsuyoshi Horigome

Update 46 models(Solar Cell) in SPICE PARK(MAY2024)
Update 46 models(Solar Cell) in SPICE PARK(MAY2024)Update 46 models(Solar Cell) in SPICE PARK(MAY2024)
Update 46 models(Solar Cell) in SPICE PARK(MAY2024)Tsuyoshi Horigome
 
SPICE PARK APR2024 ( 6,793 SPICE Models )
SPICE PARK APR2024 ( 6,793 SPICE Models )SPICE PARK APR2024 ( 6,793 SPICE Models )
SPICE PARK APR2024 ( 6,793 SPICE Models )Tsuyoshi Horigome
 
Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)
Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)
Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)Tsuyoshi Horigome
 
SPICE PARK APR2024 ( 6,747 SPICE Models )
SPICE PARK APR2024 ( 6,747 SPICE Models )SPICE PARK APR2024 ( 6,747 SPICE Models )
SPICE PARK APR2024 ( 6,747 SPICE Models )Tsuyoshi Horigome
 
Update 31 models(Diode/General ) in SPICE PARK(MAR2024)
Update 31 models(Diode/General ) in SPICE PARK(MAR2024)Update 31 models(Diode/General ) in SPICE PARK(MAR2024)
Update 31 models(Diode/General ) in SPICE PARK(MAR2024)Tsuyoshi Horigome
 
SPICE PARK MAR2024 ( 6,725 SPICE Models )
SPICE PARK MAR2024 ( 6,725 SPICE Models )SPICE PARK MAR2024 ( 6,725 SPICE Models )
SPICE PARK MAR2024 ( 6,725 SPICE Models )Tsuyoshi Horigome
 
Update 29 models(Solar cell) in SPICE PARK(FEB2024)
Update 29 models(Solar cell) in SPICE PARK(FEB2024)Update 29 models(Solar cell) in SPICE PARK(FEB2024)
Update 29 models(Solar cell) in SPICE PARK(FEB2024)Tsuyoshi Horigome
 
SPICE PARK FEB2024 ( 6,694 SPICE Models )
SPICE PARK FEB2024 ( 6,694 SPICE Models )SPICE PARK FEB2024 ( 6,694 SPICE Models )
SPICE PARK FEB2024 ( 6,694 SPICE Models )Tsuyoshi Horigome
 
Circuit simulation using LTspice(Case study)
Circuit simulation using LTspice(Case study)Circuit simulation using LTspice(Case study)
Circuit simulation using LTspice(Case study)Tsuyoshi Horigome
 
Mindmap of Semiconductor sales business(15FEB2024)
Mindmap of Semiconductor sales business(15FEB2024)Mindmap of Semiconductor sales business(15FEB2024)
Mindmap of Semiconductor sales business(15FEB2024)Tsuyoshi Horigome
 
2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice
2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice
2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspiceTsuyoshi Horigome
 
PSpice simulation of power supply for TI is Error
PSpice simulation of power supply  for TI is ErrorPSpice simulation of power supply  for TI is Error
PSpice simulation of power supply for TI is ErrorTsuyoshi Horigome
 
IGBT Simulation of Results from Rgext or Rgint
IGBT Simulation of Results from Rgext or RgintIGBT Simulation of Results from Rgext or Rgint
IGBT Simulation of Results from Rgext or RgintTsuyoshi Horigome
 
Electronic component sales method centered on alternative proposals
Electronic component sales method centered on alternative proposalsElectronic component sales method centered on alternative proposals
Electronic component sales method centered on alternative proposalsTsuyoshi Horigome
 
Electronic component sales method focused on new hires
Electronic component sales method focused on new hiresElectronic component sales method focused on new hires
Electronic component sales method focused on new hiresTsuyoshi Horigome
 
Mindmap(electronics parts sales visions)
Mindmap(electronics parts sales visions)Mindmap(electronics parts sales visions)
Mindmap(electronics parts sales visions)Tsuyoshi Horigome
 
Chat GPTによる伝達関数の導出
Chat GPTによる伝達関数の導出Chat GPTによる伝達関数の導出
Chat GPTによる伝達関数の導出Tsuyoshi Horigome
 
伝達関数の理解(Chatgpt)
伝達関数の理解(Chatgpt)伝達関数の理解(Chatgpt)
伝達関数の理解(Chatgpt)Tsuyoshi Horigome
 
DXセミナー(2024年1月17日開催)のメモ
DXセミナー(2024年1月17日開催)のメモDXセミナー(2024年1月17日開催)のメモ
DXセミナー(2024年1月17日開催)のメモTsuyoshi Horigome
 
0Ω抵抗を評価ボードで採用する理由は何ですか?
0Ω抵抗を評価ボードで採用する理由は何ですか?0Ω抵抗を評価ボードで採用する理由は何ですか?
0Ω抵抗を評価ボードで採用する理由は何ですか?Tsuyoshi Horigome
 

More from Tsuyoshi Horigome (20)

Update 46 models(Solar Cell) in SPICE PARK(MAY2024)
Update 46 models(Solar Cell) in SPICE PARK(MAY2024)Update 46 models(Solar Cell) in SPICE PARK(MAY2024)
Update 46 models(Solar Cell) in SPICE PARK(MAY2024)
 
SPICE PARK APR2024 ( 6,793 SPICE Models )
SPICE PARK APR2024 ( 6,793 SPICE Models )SPICE PARK APR2024 ( 6,793 SPICE Models )
SPICE PARK APR2024 ( 6,793 SPICE Models )
 
Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)
Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)
Update 22 models(Schottky Rectifier ) in SPICE PARK(APR2024)
 
SPICE PARK APR2024 ( 6,747 SPICE Models )
SPICE PARK APR2024 ( 6,747 SPICE Models )SPICE PARK APR2024 ( 6,747 SPICE Models )
SPICE PARK APR2024 ( 6,747 SPICE Models )
 
Update 31 models(Diode/General ) in SPICE PARK(MAR2024)
Update 31 models(Diode/General ) in SPICE PARK(MAR2024)Update 31 models(Diode/General ) in SPICE PARK(MAR2024)
Update 31 models(Diode/General ) in SPICE PARK(MAR2024)
 
SPICE PARK MAR2024 ( 6,725 SPICE Models )
SPICE PARK MAR2024 ( 6,725 SPICE Models )SPICE PARK MAR2024 ( 6,725 SPICE Models )
SPICE PARK MAR2024 ( 6,725 SPICE Models )
 
Update 29 models(Solar cell) in SPICE PARK(FEB2024)
Update 29 models(Solar cell) in SPICE PARK(FEB2024)Update 29 models(Solar cell) in SPICE PARK(FEB2024)
Update 29 models(Solar cell) in SPICE PARK(FEB2024)
 
SPICE PARK FEB2024 ( 6,694 SPICE Models )
SPICE PARK FEB2024 ( 6,694 SPICE Models )SPICE PARK FEB2024 ( 6,694 SPICE Models )
SPICE PARK FEB2024 ( 6,694 SPICE Models )
 
Circuit simulation using LTspice(Case study)
Circuit simulation using LTspice(Case study)Circuit simulation using LTspice(Case study)
Circuit simulation using LTspice(Case study)
 
Mindmap of Semiconductor sales business(15FEB2024)
Mindmap of Semiconductor sales business(15FEB2024)Mindmap of Semiconductor sales business(15FEB2024)
Mindmap of Semiconductor sales business(15FEB2024)
 
2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice
2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice
2-STAGE COCKCROFT-WALTON [SCHEMATIC] using LTspice
 
PSpice simulation of power supply for TI is Error
PSpice simulation of power supply  for TI is ErrorPSpice simulation of power supply  for TI is Error
PSpice simulation of power supply for TI is Error
 
IGBT Simulation of Results from Rgext or Rgint
IGBT Simulation of Results from Rgext or RgintIGBT Simulation of Results from Rgext or Rgint
IGBT Simulation of Results from Rgext or Rgint
 
Electronic component sales method centered on alternative proposals
Electronic component sales method centered on alternative proposalsElectronic component sales method centered on alternative proposals
Electronic component sales method centered on alternative proposals
 
Electronic component sales method focused on new hires
Electronic component sales method focused on new hiresElectronic component sales method focused on new hires
Electronic component sales method focused on new hires
 
Mindmap(electronics parts sales visions)
Mindmap(electronics parts sales visions)Mindmap(electronics parts sales visions)
Mindmap(electronics parts sales visions)
 
Chat GPTによる伝達関数の導出
Chat GPTによる伝達関数の導出Chat GPTによる伝達関数の導出
Chat GPTによる伝達関数の導出
 
伝達関数の理解(Chatgpt)
伝達関数の理解(Chatgpt)伝達関数の理解(Chatgpt)
伝達関数の理解(Chatgpt)
 
DXセミナー(2024年1月17日開催)のメモ
DXセミナー(2024年1月17日開催)のメモDXセミナー(2024年1月17日開催)のメモ
DXセミナー(2024年1月17日開催)のメモ
 
0Ω抵抗を評価ボードで採用する理由は何ですか?
0Ω抵抗を評価ボードで採用する理由は何ですか?0Ω抵抗を評価ボードで採用する理由は何ですか?
0Ω抵抗を評価ボードで採用する理由は何ですか?
 

Recently uploaded

Connect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationConnect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationSlibray Presentation
 
CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):comworks
 
Human Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsHuman Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsMark Billinghurst
 
Artificial intelligence in the post-deep learning era
Artificial intelligence in the post-deep learning eraArtificial intelligence in the post-deep learning era
Artificial intelligence in the post-deep learning eraDeakin University
 
Streamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project SetupStreamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project SetupFlorian Wilhelm
 
Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365
Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365
Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 3652toLead Limited
 
Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024BookNet Canada
 
Bluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdfBluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdfngoud9212
 
New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024
New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024
New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024BookNet Canada
 
Unlocking the Potential of the Cloud for IBM Power Systems
Unlocking the Potential of the Cloud for IBM Power SystemsUnlocking the Potential of the Cloud for IBM Power Systems
Unlocking the Potential of the Cloud for IBM Power SystemsPrecisely
 
APIForce Zurich 5 April Automation LPDG
APIForce Zurich 5 April  Automation LPDGAPIForce Zurich 5 April  Automation LPDG
APIForce Zurich 5 April Automation LPDGMarianaLemus7
 
Are Multi-Cloud and Serverless Good or Bad?
Are Multi-Cloud and Serverless Good or Bad?Are Multi-Cloud and Serverless Good or Bad?
Are Multi-Cloud and Serverless Good or Bad?Mattias Andersson
 
Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...
Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...
Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...shyamraj55
 
Science&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdfScience&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdfjimielynbastida
 
Pigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food ManufacturingPigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food ManufacturingPigging Solutions
 
Scanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL CertsScanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL CertsRizwan Syed
 
#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024BookNet Canada
 
AI as an Interface for Commercial Buildings
AI as an Interface for Commercial BuildingsAI as an Interface for Commercial Buildings
AI as an Interface for Commercial BuildingsMemoori
 

Recently uploaded (20)

Connect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationConnect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck Presentation
 
CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):
 
Human Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsHuman Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR Systems
 
Artificial intelligence in the post-deep learning era
Artificial intelligence in the post-deep learning eraArtificial intelligence in the post-deep learning era
Artificial intelligence in the post-deep learning era
 
Streamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project SetupStreamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project Setup
 
Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365
Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365
Tech-Forward - Achieving Business Readiness For Copilot in Microsoft 365
 
Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
Transcript: #StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
 
Bluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdfBluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdf
 
New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024
New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024
New from BookNet Canada for 2024: BNC BiblioShare - Tech Forum 2024
 
Unlocking the Potential of the Cloud for IBM Power Systems
Unlocking the Potential of the Cloud for IBM Power SystemsUnlocking the Potential of the Cloud for IBM Power Systems
Unlocking the Potential of the Cloud for IBM Power Systems
 
APIForce Zurich 5 April Automation LPDG
APIForce Zurich 5 April  Automation LPDGAPIForce Zurich 5 April  Automation LPDG
APIForce Zurich 5 April Automation LPDG
 
Are Multi-Cloud and Serverless Good or Bad?
Are Multi-Cloud and Serverless Good or Bad?Are Multi-Cloud and Serverless Good or Bad?
Are Multi-Cloud and Serverless Good or Bad?
 
Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...
Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...
Automating Business Process via MuleSoft Composer | Bangalore MuleSoft Meetup...
 
Vulnerability_Management_GRC_by Sohang Sengupta.pptx
Vulnerability_Management_GRC_by Sohang Sengupta.pptxVulnerability_Management_GRC_by Sohang Sengupta.pptx
Vulnerability_Management_GRC_by Sohang Sengupta.pptx
 
Science&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdfScience&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdf
 
Pigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food ManufacturingPigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food Manufacturing
 
The transition to renewables in India.pdf
The transition to renewables in India.pdfThe transition to renewables in India.pdf
The transition to renewables in India.pdf
 
Scanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL CertsScanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL Certs
 
#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
#StandardsGoals for 2024: What’s new for BISAC - Tech Forum 2024
 
AI as an Interface for Commercial Buildings
AI as an Interface for Commercial BuildingsAI as an Interface for Commercial Buildings
AI as an Interface for Commercial Buildings
 

SPICE Model of Fuse

  • 1. Fuse Simplified SPICE Behavioral Model All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 1
  • 2. Contents 1.Benefit of the Model 2.Model Feature 3.Parameter Settings 4.Fuse Specification (Example) 5.Fusing Time vs. DC Current 6.Fusing Time vs. Current Pattern 7.Specific Fuse Model Simulation Index All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 2
  • 3. 1. Benefit of the Model • Easily create your own fuse models by setting a few parameters, that’s usually provided by the manufacturer’s datasheet. • Enables circuit designer to safely test and optimize their circuit protection design, and to predict component and circuit stress under extreme conditions (e.g. at the fuse blow). • The model is optimized to reduce the convergence error. All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 3
  • 4. 2. Model Feature The model accounts for: 10 • Current Rating • Fuse Factor 1 Fusing Time (Sec.) • Internal Resistance 0.1 • Normal Melting I2t Enable the model to simulate fusing time (blow time) as a function of I2t. 0.01 The model can be used for testing the 0.001 blow time for the different current pattern. 0.1 1 10 100 Fusing Current (A) A one-shot switch, once fuse is opened it cannot be closed. Fig.1 Fusing Time vs. Fusing Current Characteristic All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 4
  • 5. 3. Parameter Settings • From the fuse specification, the model is characterized by setting parameters Irate, FF, Rint and I2t. Model Parameters: U1 Irate = the current rating of fuse [A] FF = Fusing Factor, the ratio of the minimum fusing current (the current FUSE that fuse start to heat up) to Irate. (e.g. Irate =400mA and the minimum IRATE = 400m fusing current is 620mA then FF = FF = 1.55 620m/400m = 1.55) RINT = 650m Rint = internal resistance of fuse I2T = 0.024 I2t = Normal Melting value [A2, seconds] Fig.2 Fuse model with default parameters All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 5
  • 6. 4. Fuse Specification (Example) 10 Current Internal I2t (A2, the minimum fusing current Part No. Rating R. max. seconds is 620mA, FF = 20m/400m = 1.55 (mA) (m) ) 1 Fusing Time (Sec.) CCF1N0.4 400 650 0.024 0.1 U1 0.01 FUSE IRATE = 400m FF = 1.55 0.001 RINT = 650m 0.1 1 10 100 I2T = 0.024 Fusing Current (A) Fig.3 Shows the complete setting of fuse model parameters by using data from the datasheet of CCF1N0.4 provided by KOA Speer Electronics, Inc. All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 6
  • 7. 5. Fusing Time vs. DC Current Simulation Result Simulation Circuit 10A PARAMETERS: (960.962u,5.0000) dc_current = 1 sense U1 tF = 960.962usec. at IF = 5A FUSE I1 IRATE = 400m (6.0051m,2.0000) I1 = 0 FF = 1.55 RL I2 = {dc_current} RINT = 650m 1 tF = 6.0051msec. at IF = 2A I2T = 0.024 T1 = 0 (24.013m,1.0000) T2 = 100n 1.0A tF = 24.013msec. at IF = 1A 0 0 *Analysis directives: .TRAN 0 1s 500u 100u .STEP PARAM dc_current LIST 1, 2, 5 100mA 1.0ms 10ms 100ms 1.0s I(sense) Time • The simulation result shows the fusing times, tF, (the time that fuse blows) at the different fuse currents, IF . All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 7
  • 8. 5. Fusing Time vs. DC Current Comparison Graph 10 Measurement Simulation 1 Fusing Time (Sec.) 0.1 0.01 0.001 0.1 1 10 100 Fusing Current Graph shows the comparison result between the simulation result vs. the measurement data. The fusing current error (average from 0.001-10 sec.) = 4.9% All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 8
  • 9. 6 Fusing Time vs. Current Pattern Simulation Result Simulation Circuit 2.0A sense1 U1 1.5A tF = 149.796msec. for triangle wave FUSE I1 IRATE = 400m (149.796m,959.222m) IOFF = 0 FF = 1.55 RL1 RINT = 650m 1 1.0A FREQ = 50 I2T = 0.024 IAMPL = 1 PHASE = -90 0 0 0.5A sense2 U2 0A FUSE I2 IRATE = 400m -0.5A TD = 0 FF = 1.55 RL2 TF = 10m RINT = 650m 1 I2T = 0.024 PW = 0 -1.0A PER = 20m 0 I1 = -1 0 I2 = 1 (59.503m,-987.814m) TR = 10m -1.5A tF = 59.503msec. for sine wave -2.0A .TRAN 0 0.2s 0 100u 0s 20ms 40ms 60ms 80ms 100ms 140ms 180ms I(sense1) I(sense2) Time • The simulation result shows the fusing times, tF, (the time that fuse blows) for the same peak current but different in current patterns(waveforms). All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 9
  • 10. 7. Specific Fuse Model Comparison Graph 10 Measurement Simulation U1 1 Error reduce to 0.4% Fusing Time (Sec.) CCF1N0_4 0.1 Model of fuse part number 0.01 CCF10.4, all parameters and function are already set 0.001 0.1 1 10 100 Fusing Current If the most accurate result is required, we could provide the specific model that optimized for each part number of fuse. The fusing current error (average from 0.001- 10 sec.) will reduce from 4.9% (simplified model) to 0.4% (specific fuse model) All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 10
  • 11. Simulation Index Simulations Folder name 1. Fusing Time vs. DC Current.................................. DC 2. Fusing Time vs. Current Pattern............................ Pattern All Rights Reserved Copyright (C) Bee Technologies Corporation 2011 11