This document is a datasheet that provides information about the IHW20N120R5 resonant switching IGBT. It includes details on the device's features, key parameters, maximum ratings, electrical characteristics, switching characteristics and package. The IHW20N120R5 is a 1200V IGBT with a monolithic body diode, designed for soft switching applications such as inductive cooking and inverterized microwave ovens. It has low saturation voltage, positive temperature coefficient for easy parallel switching, and qualified for industrial applications.
Slides for the eLearning course Separation and purification processes in biorefineries (https://open-learn.xamk.fi) in IMPRESS project.
Section: Distillation
Subject: 0.3 Basic concepts of distillation
Brief introduction to Fired Heaters operation and design. Definition of the different Heaters in the industry and brief strategy how to operate them safely.
Slides for the eLearning course Separation and purification processes in biorefineries (https://open-learn.xamk.fi) in IMPRESS project.
Section: Distillation
Subject: 0.3 Basic concepts of distillation
Brief introduction to Fired Heaters operation and design. Definition of the different Heaters in the industry and brief strategy how to operate them safely.
Basic Unit Conversions for Turbomachinery Calculations Vijay Sarathy
Turbomachinery equipment like centrifugal pumps & compressors have their performance stated as a function of Actual volumetric flow rate [Q] & Head [m/bar]. The following tutorial describes how pump/compressor head can be expressed in energy terms as ‘kJ/kg’. Turbomachinery head expressed in kJ/kg describes, how many kJ of energy is required to compress 1 kg of gas for a given pressure ratio. The advantage of using energy terms to estimate absorbed power is that it is based on the amount of ‘mass’ compressed which is independent of pressure and temperature of a fluid.
This slide completely describes you about the stuff include in it and also everything about chemical engineeringThis slide completely describes you about the stuff include in it and also everything about chemical engineering. Fluid Mechanics. Thermodynamics. Mass Transfer Chemical Engineering. Energy Engineering, Mass Transfer 2, Heat Transfer,
Selection of Heat Exchanger Types
0 INTRODUCTION/PURPOSE
1 SCOPE
2 FIELD OF APPLICATION
3 DEFINITIONS
4 BACKGROUND
5 FACTORS INFLUENCING SELECTION
5.1 Type of Duty
5.2 Temperatures and Pressures
5.3 Materials of Construction 5.4 Fouling
5.5 Safety and Reliability
5.6 Repairs
5.7 Design Methods
5.8 Dimensions and Weight
5.9 Cost
5.10 GBHE Experience
6 TYPES OF EXCHANGER
6.1 Shell and Tube Exchangers
6.2 Cylindrical Graphite Block Heat Exchangers
6.3 Cubic Graphite Block Heat Exchangers
6.4 Air Cooled Heat Exchangers
6.5 Gasketed Plate and Frame
6.6 Spiral Plate
6.7 Tube in Duct
6.8 Plate-fin
6.9 Printed Circuit Heat Exchanger (PCHE)
6.10 Scraped Surface/Wiped Film Exchangers
6.11 Welded or Brazed Plate
6.12 Double Pipe
6.13 Electric Heaters
6.14 Fired Process Heaters
TABLE
(1) ADVANTAGES AND DISADVANTAGES OF DIFFERENT SHELL AND TUBE DESIGNS
FIGURES
1 ESTIMATED MAIN PLANT ITEM COSTS
2 ESTIMATED INSTALLED COSTS
3 TEMA HEAT EXCHANGER NOMENCLATURE
4 F ‘CORRECTION FACTORS' : TEMA E SHELL WITH EVEN NUMBER OF PASSE
5 SHELL AND TUBE HEAT EXCHANGER HEAD TYPES
6 GENERAL ARRANGEMENT OF A CYLINDRICAL GRAPHITE BLOCK HEAT EXCHANGER
7 EXPLODED VIEW OF A CUBIC GRAPHITE BLOCK
HEAT EXCHANGER
8 TYPICAL AIR COOLED HEAT EXCHANGER
9 GENERAL VIEW OF ONE END OF A 3-STREAM
PLATE-FIN HEAT EXCHANGER
10 TYPICAL PCHE PLATE
11 VICARB ‘COMPABLOC' EXCHANGER
12 ‘BROWN FINTUBE' MULTITUBE HEAT EXCHANGER
13 FIRED HEATER : SCHEMATICS AND NOMENCLATURE
Original IC Mosfet Driver IXDN602SIATR IXDN602SIA 602 SOP-8 New IXYS CorporationAUTHELECTRONIC
Original IC Mosfet Driver IXDN602SIATR IXDN602SIA 602 SOP-8 New IXYS Corporation
https://authelectronic.com/original-ic-mosfet-driver-ixdn602siatr-ixdn602sia-602-sop-8-new-ixys-corporation
Basic Unit Conversions for Turbomachinery Calculations Vijay Sarathy
Turbomachinery equipment like centrifugal pumps & compressors have their performance stated as a function of Actual volumetric flow rate [Q] & Head [m/bar]. The following tutorial describes how pump/compressor head can be expressed in energy terms as ‘kJ/kg’. Turbomachinery head expressed in kJ/kg describes, how many kJ of energy is required to compress 1 kg of gas for a given pressure ratio. The advantage of using energy terms to estimate absorbed power is that it is based on the amount of ‘mass’ compressed which is independent of pressure and temperature of a fluid.
This slide completely describes you about the stuff include in it and also everything about chemical engineeringThis slide completely describes you about the stuff include in it and also everything about chemical engineering. Fluid Mechanics. Thermodynamics. Mass Transfer Chemical Engineering. Energy Engineering, Mass Transfer 2, Heat Transfer,
Selection of Heat Exchanger Types
0 INTRODUCTION/PURPOSE
1 SCOPE
2 FIELD OF APPLICATION
3 DEFINITIONS
4 BACKGROUND
5 FACTORS INFLUENCING SELECTION
5.1 Type of Duty
5.2 Temperatures and Pressures
5.3 Materials of Construction 5.4 Fouling
5.5 Safety and Reliability
5.6 Repairs
5.7 Design Methods
5.8 Dimensions and Weight
5.9 Cost
5.10 GBHE Experience
6 TYPES OF EXCHANGER
6.1 Shell and Tube Exchangers
6.2 Cylindrical Graphite Block Heat Exchangers
6.3 Cubic Graphite Block Heat Exchangers
6.4 Air Cooled Heat Exchangers
6.5 Gasketed Plate and Frame
6.6 Spiral Plate
6.7 Tube in Duct
6.8 Plate-fin
6.9 Printed Circuit Heat Exchanger (PCHE)
6.10 Scraped Surface/Wiped Film Exchangers
6.11 Welded or Brazed Plate
6.12 Double Pipe
6.13 Electric Heaters
6.14 Fired Process Heaters
TABLE
(1) ADVANTAGES AND DISADVANTAGES OF DIFFERENT SHELL AND TUBE DESIGNS
FIGURES
1 ESTIMATED MAIN PLANT ITEM COSTS
2 ESTIMATED INSTALLED COSTS
3 TEMA HEAT EXCHANGER NOMENCLATURE
4 F ‘CORRECTION FACTORS' : TEMA E SHELL WITH EVEN NUMBER OF PASSE
5 SHELL AND TUBE HEAT EXCHANGER HEAD TYPES
6 GENERAL ARRANGEMENT OF A CYLINDRICAL GRAPHITE BLOCK HEAT EXCHANGER
7 EXPLODED VIEW OF A CUBIC GRAPHITE BLOCK
HEAT EXCHANGER
8 TYPICAL AIR COOLED HEAT EXCHANGER
9 GENERAL VIEW OF ONE END OF A 3-STREAM
PLATE-FIN HEAT EXCHANGER
10 TYPICAL PCHE PLATE
11 VICARB ‘COMPABLOC' EXCHANGER
12 ‘BROWN FINTUBE' MULTITUBE HEAT EXCHANGER
13 FIRED HEATER : SCHEMATICS AND NOMENCLATURE
Original IC Mosfet Driver IXDN602SIATR IXDN602SIA 602 SOP-8 New IXYS CorporationAUTHELECTRONIC
Original IC Mosfet Driver IXDN602SIATR IXDN602SIA 602 SOP-8 New IXYS Corporation
https://authelectronic.com/original-ic-mosfet-driver-ixdn602siatr-ixdn602sia-602-sop-8-new-ixys-corporation
The Snow Melt Control by Heat-Timer is made to run a hydronic heating system to melt ice or snow from driveways, station platforms, walkways, etc. For more information on its specifications, features and installation, visit us! Click https://www.heat-timer.com/snow-melt/
Liquipoint t ftw31 32 endress+hauser datasheet-level limit switch for multipl...ENVIMART
Liquipoint t ftw31 32 endress+hauser datasheet-level limit switch for multiple point - Endress+Hauser - Envimart JSC - www.envimart.vn - ĐT: 028 77727979 - sales@envimart.vn - Nền tảng cung cấp thiết bị, vật tư ngành nước và môi trường.
Proline Promag 10L-Electromagnetic Flowmeter. Flow measurement of liquids in water or wastewater applications. Email: lam.nguyen@vietan-enviro.com HP: 0945 293292
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NUMERICAL SIMULATIONS OF HEAT AND MASS TRANSFER IN CONDENSING HEAT EXCHANGERS...ssuser7dcef0
Power plants release a large amount of water vapor into the
atmosphere through the stack. The flue gas can be a potential
source for obtaining much needed cooling water for a power
plant. If a power plant could recover and reuse a portion of this
moisture, it could reduce its total cooling water intake
requirement. One of the most practical way to recover water
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plant could also recover latent heat due to condensation as well
as sensible heat due to lowering the flue gas exit temperature.
Additionally, harmful acids released from the stack can be
reduced in a condensing heat exchanger by acid condensation. reduced in a condensing heat exchanger by acid condensation.
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phenomenon since heat and mass transfer of water vapor and
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condenser depends on the knowledge and understanding of the
heat and mass transfer processes. A computer program for
numerical simulations of water (H2O) and sulfuric acid (H2SO4)
condensation in a flue gas condensing heat exchanger was
developed using MATLAB. Governing equations based on
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predict variables such as flue gas exit temperature, cooling
water outlet temperature, mole fraction and condensation rates
of water and sulfuric acid vapors. The equations were solved
using an iterative solution technique with calculations of heat
and mass transfer coefficients and physical properties.
Hierarchical Digital Twin of a Naval Power SystemKerry Sado
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Sachpazis:Terzaghi Bearing Capacity Estimation in simple terms with Calculati...Dr.Costas Sachpazis
Terzaghi's soil bearing capacity theory, developed by Karl Terzaghi, is a fundamental principle in geotechnical engineering used to determine the bearing capacity of shallow foundations. This theory provides a method to calculate the ultimate bearing capacity of soil, which is the maximum load per unit area that the soil can support without undergoing shear failure. The Calculation HTML Code included.
We have compiled the most important slides from each speaker's presentation. This year’s compilation, available for free, captures the key insights and contributions shared during the DfMAy 2024 conference.
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CW RADAR, FMCW RADAR, FMCW ALTIMETER, AND THEIR PARAMETERSveerababupersonal22
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6th International Conference on Machine Learning & Applications (CMLA 2024) will provide an excellent international forum for sharing knowledge and results in theory, methodology and applications of on Machine Learning & Applications.
4. Datasheet 4 V2.2
2019-09-19
IHW20N120R5
ResonantSwitchingSeries
MaximumRatings
Foroptimumlifetimeandreliability,Infineonrecommendsoperatingconditionsthatdonotexceed80%ofthemaximumratingsstatedinthisdatasheet.
Parameter Symbol Value Unit
Collector-emittervoltage,Tvj≥25°C VCE 1200 V
DCcollectorcurrent,limitedbyTvjmax
Tc=25°C
Tc=100°C
IC 40.0
20.0
A
Pulsedcollectorcurrent,tplimitedbyTvjmax ICpuls 60.0 A
Non repetitive peak collector current1)
ICSM 200 A
Turn off safe operating area
VCE≤1200V,Tvj≤175°C,tp=1µs
- 60.0 A
Diodeforwardcurrent,limitedbyTvjmax
Tc=25°C
Tc=100°C
IF 40.0
20.0
A
Diodepulsedcurrent,tplimitedbyTvjmax IFpuls 60.0 A
Gate-emitter voltage
TransientGate-emittervoltage(tp≤10µs,D0.010)
VGE
±20
±25
V
PowerdissipationTc=25°C
PowerdissipationTc=100°C
Ptot
288.0
144.0
W
Operating junction temperature Tvj -40...+175 °C
Storage temperature Tstg -55...+150 °C
Soldering temperature,
wave soldering 1.6mm (0.063in.) from case for 10s 260
°C
Mounting torque, M3 screw
Maximum of mounting processes: 3
M 0.6 Nm
ThermalResistance
Value
min. typ. max.
Parameter Symbol Conditions Unit
RthCharacteristics
IGBT thermal resistance,
junction - case
Rth(j-c) - - 0.52 K/W
Diode thermal resistance,
junction - case
Rth(j-c) - - 0.52 K/W
Thermal resistance
junction - ambient
Rth(j-a) - - 40 K/W
1)
capacitor charging saturation current limited by Tvjmax 175°C and tp 3µs
5. Datasheet 5 V2.2
2019-09-19
IHW20N120R5
ResonantSwitchingSeries
ElectricalCharacteristic,atTvj=25°C,unlessotherwisespecified
Value
min. typ. max.
Parameter Symbol Conditions Unit
StaticCharacteristic
Collector-emitter breakdown voltage V(BR)CES VGE=0V,IC=0.50mA 1200 - - V
Collector-emitter saturation voltage VCEsat
VGE=15.0V,IC=20.0A
Tvj=25°C
Tvj=125°C
Tvj=175°C
-
-
-
1.55
1.75
1.80
1.75
-
-
V
Diode forward voltage VF
VGE=0V,IF=20.0A
Tvj=25°C
Tvj=125°C
Tvj=175°C
-
-
-
1.60
1.75
1.85
1.85
-
-
V
Gate-emitter threshold voltage VGE(th) IC=0.50mA,VCE=VGE 5.1 5.8 6.4 V
Zero gate voltage collector current ICES
VCE=1200V,VGE=0V
Tvj=25°C
Tvj=175°C
-
-
-
300
100
-
µA
Gate-emitter leakage current IGES VCE=0V,VGE=20V - - 100 nA
Transconductance gfs VCE=20V,IC=20.0A - 15.2 - S
Integrated gate resistor rG none Ω
ElectricalCharacteristic,atTvj=25°C,unlessotherwisespecified
Value
min. typ. max.
Parameter Symbol Conditions Unit
DynamicCharacteristic
Input capacitance Cies - 1340 -
Output capacitance Coes - 43 -
Reverse transfer capacitance Cres - 34 -
VCE=25V,VGE=0V,f=1MHz pF
Gate charge QG
VCC=1080V,IC=20.0A,
VGE=15V
- 170.0 - nC
Internal emitter inductance
measured 5mm (0.197 in.) from
case
LE - 13.0 - nH
SwitchingCharacteristic,InductiveLoad
Value
min. typ. max.
Parameter Symbol Conditions Unit
IGBTCharacteristic,atTvj=25°C
Turn-off delay time td(off) - 260 - ns
Fall time tf - 50 - ns
Turn-off energy Eoff - 0.75 - mJ
Tvj=25°C,
VCC=600V,IC=20.0A,
VGE=0.0/15.0V,
RG(on)=10.0Ω,RG(off)=10.0Ω,
Lσ=175nH,Cσ=40pF
Lσ,CσfromFig.E
Energy losses include “tail” and
diode reverse recovery.
14. Datasheet 14 V2.2
2019-09-19
IHW20N120R5
ResonantSwitchingSeries
t
a b
td(off)
tf tr
td(on)
90% IC
10% IC
90% IC
10% VGE
10% IC
t
90% VGE
t
t
90% VGE
VGE
(t)
t
t
t
t1 t4
2% IC
10% VGE
2% VCE
t2
t3
E
t
t
V I t
off
= x x d
1
2
CE C E
t
t
V I t
on
= x x d
3
4
CE C
CC
dI /dtF
dI
I,V
Figure A.
Figure B.
Figure C. Definition of diode switching
characteristics
Figure E. Dynamic test circuit
Figure D.
I (t)C
Parasitic inductance L ,
parasitic capacitor C ,
relief capacitor C ,
(only for ZVT switching)
s
s
r
t t t
Q Q Q
rr a b
rr a b
= +
= +
Qa Qb
V (t)CE
VGE
(t)
I (t)C
V (t)CE
Testing Conditions