Infineon-Technologies-BFP-640F-H6327
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Contents
Introduction RF discretes
3
RF transistors
5
6
7
8
9
RF transistors – 7
th
generation
RF transistors – 8
th
generation
Medium-power amplifiers
RF transistors – product portfolio
PIN diodes
12
14
16
17
18
Schottky diodes
RF diodes portfolio by package
Infineon support for RF discretes
Cross reference list
2
Introduction RF discretes
Robust, flexible, small and reliable devices for complementary wireless solutions
As society becomes ever more mobile, 24/ꢀ universal network
availability and connectivity will play a big role in our future.
Data traffic in mobile systems and infrastructure will
continue to increase tremendously and by 2020 there will
be 50.1 billion units of expected connected devices and
data rates will reach 1 Gbps through 5G deployment,
because people will continue to expand the role of mobile
data in their everyday life. Multiple devices connected
to one another will be used to post, share and stream con-
tent, with videos making up the bulk of this traffic.
and interference immunity enhancement, and making
receiving and transmitting signals more stable and reliable
Versatility
: With regard to product portfolio availability,
we outdo our competitors by a factor of 2 and provide our
customers with the necessary versatility during design-in
by offering a wide choice of different packages, conven-
tional SOTs or miniaturized TSLPs, and device features
Supply security:
We provide competitive lead times of
≤ ꢂ weeks, while ensuring the ability to handle demand
upswings with two dedicated FEs and two BEs. Our com-
mitment to customers’ shipment dates and supply perfor-
mance always exceeds industry standards by 2 percent,
i.e. ꢃꢀ percent instead of ꢃ5 percent
Quality and reliability
: Our field failure rates are on aver-
age < 0.1 PPM, providing the quality standards for which
Infineon is renowned throughout the semiconductor
industry
Design-in and sales support
: We support our customers
with a worldwide field application engineering and sales
team, providing a professional and flexible design-in
service
›
›
As a part of this constant increase the growing of access
points under the form of small cells, infotainment and
navigation assistance in automotive for instance will play a
major role in tomorrow’s communications. Granting stable
and reliable wireless reception and transmission at mul-
tiple or specific bands will enable users to access the net
through devices equipped with wireless network interface,
while roaming within the range of fixed Access Points (AP)
or a public cell.
›
›
Our products stand for
Performance
: Our ꢁ
th
gen. RF transistors deliver the best NF
Last but not least, we lead innovation and have a proven
›
available on the market – 0.ꢂ dB as measured in the appli-
cation – delivering an improvement in system sensitivity
ability to flexibly support our customers in fragmented and
rapidly developing markets.
Customer Shipment Date (CSD) performance
on average ≥ 97%
Infineon provides with the broadest RF discretes
portfolio for complementary wireless
160
100%
90%
80%
Number of products count
140
124
95%
Industry
standard
120
100
80
62
60
40
20
0
31
21
10
Competitor N
Infineon
Competitor T
Competitor R
Competitor S
The following pages provide guidance in selecting suitable products for particular applications.
3
4
RF transistors
For over a decade, Infineon Technologies have paved the
way in all radio frequency segments, with RF transistors
providing an outstanding RF performance, superior signal
quality and robustness – all this at a highly attractive price.
while also providing higher robustness given the ESD
protection, strong design reliability and the option of inte-
grating dense analog circuitry and digital control on the
same mixed-signal IC. Not only does this allow wireless
equipment manufacturers to add more functionality onto
devices where space is a constraint, but it is also available
at a competitive price, while offering the ultimate in qual-
ity and manufacturing efficiency.
Silicon-germanium (SiGe) based on Bꢃ technology benefits
from in-house process builds and years of experience in
high-volume SiGe:C bipolar technology, which has been in
mass production since 2002.
Bꢃ comes in different variants, but the ꢀ
th
and ꢁ
th
genera-
tions – each with its own optimization for specific applica-
tion areas – are our focus series.
Bꢃ-based product serie deliver an RF performance compa-
rable to GaAs in terms of linearity and noise figures;
General-purpose LNAs
ꢀ
st
– ꢁ
rd
Gen.
f
T
(max) = ꢂ–ꢁ GHz
Noise
2)
NF
min
=
ꢀ.ꢂ–ꢃ.ꢀ dB
1)
ꢂ
th
Gen.
f
T
(max) = 25 GHz
Very low noise
NF
min
= 1.1 dB
1)
2)
ꢄ
th
Gen.
Ultra low noise
f
T
(max) = 2ꢃ GHz
NF
min
= 0.ꢃ dB
1)
2)
ꢅ
th
Gen.
2)
ꢆ
th
Gen.
f
T
(max) = 40 GHz
NF
min
= 0.ꢀ dB
1)
2)
f
T
(max) = 44 GHz
NF
min
= 0.ꢂ dB
1)
ꢇ
th
Gen.
f
T
(max) = ꢁ0 GHz
NF
min
=
0.ꢄ dB
1)
1) As measured in the application
2) Available with ESD for improved robustness
Low
Frequency (f
T
(max) in GHz)
High
5
RF transistors – 7
th
generation
Ease of use for complementary wireless connectivity
Infineon’s ꢀ
th
generation RF transistor family is an easy-
to-use series of discrete Heterojunction Bipolar Transistors
(HBT) which is suitable as a single- and dual-band Low-
Noise Amplifier (LNA) solution for a vast range of WiFi con-
nectivity applications.
capacitance in order to enhance high-frequency character-
istics. Furthermore, they allow engineers to increase the
RF link budget and Signal-to-Noise Ratio (SNR) of their AP
routers and mobile stations when wider coverage areas are
needed and especially when a higher order modulation
scheme, such as 25ꢂ Quadrature Amplitude Modulation
(QAM), is used. They offer a high throughput where a more
stringent SNR for both the AP and client is required.
This series of devices combines a 44 GHz f
T
silicon-germa-
nium:carbide (SiGe:C) BꢀHF process with advanced device
geometry engineering conceived to reduce the parasitic
Key features
Technical benefits
Customer benefits
Ease of use RF performance
Broad frequency range:
from 450 MHz to 12 GHz
Reduced
power consumption
Device suitability
under input signal
power-stress
Unmatched
general purpose device for
high flexibility in vast frequency range
Energy savings
and extended battery life
Improved high input power robustness
›
›
High transition frequency f
= 45 GHz
High gain (1ꢃ dB) and NF level (0.ꢂ5 dB)
High linearity OP1dB +ꢁ.5 dBm and OIP3
›
T
›
›
›
›
›
›
+1ꢃ dBm at 2.4 GHz at low current con-
sumption of 13 mA
High maximum RF input power
1.5 kV HBM ESD robustness
›
›
2.4
40
35
30
25
20
15
10
5
0.15 GHz
0.45 GHz
2.2
f = 3.5 GHz
f = 10 GHz
2.0
f = 2.4 GHz
f = 1.9 GHz
f = 1.5 GHz
f = 0.9 GHz
f = 0.45 GHz
1.8
1.6
0.9 GHz
1.5 GHz
1.9 GHz
2.4 GHz
3.5 GHz
5.5 GHz
10 GHz
1.4
f = 5.5 GHz
1.2
1.0
0.8
0.6
0.4
0.2
0
0
0
5
10
15
20
25
0
5
10 15 20 25 30 35 40 45 50 55
I
C
[mA]
I
C
[mA]
Infineon’s ꢀ
th
generation general-purpose transistors offer
RF engineers an outstanding performance. With noise
figures of as low as 0.45 dB in sub-GHz range and of 0.ꢃ dB
at 5.5 GHz, this transistor series functions as a low-noise
amplifier and provides improved system sensitivity in wire-
less communication and broadcasting systems.
With G
max
of more than 10 dB at 10 GHz, Infineon’s ꢀ
th
gener-
ation product portfolio can also be used as a gain block for
buffer or driver amplifiers, or as a mixer or VCO for frequen-
cies higher than 10 GHz.
6
RF transistors – 8
th
generation
Best-in-class performance for WiFi connectivity
The BFxꢁ40x product family is a series of discrete Heterojunc-
ꢁ
th
generation RF transistors allow engineers to increase the
tion Bipolar Transistors (HBT) addressing dual- and fixed-
frequency Low-Noise Amplifier (LNA) solutions for high-per-
formance WiFi connectivity applications. It combines an
ꢁ0 GHz f
T
silicon-germanium:carbide (SiGe:C) BꢃHF process
and adopts dedicated device geometry reducing the para-
sitic capacitance between substrate and transistor degrades
high-frequency characteristics and ultimately improved.
RF link budget and Signal-to-Noise Ratio (SNR) of their AP
routers and mobile stations when wider coverage areas are
needed mostly or when a higher order modulation scheme
is used, such as in emerging very high throughput wireless
specifications like 25ꢂ Quadrature Amplitude Modulation
(QAM) in IEEE ꢁ02.11ac, which has more stringent SNR
requirements for both the AP client.
Best-in-class 8
th
generation RF transistors: NF and G
max
SiGe competitor comparison
Best in class
0.8
0.7
0.6
0.5
30
25
+17%
20
15
10
5
-15%
Best in class
0
BPx740
series
BPx840
series
Comp. N
BPx740
series
BPx840
series
Comp. N
ꢁ
th
generation RF transistors come with an improved BiC in relation to NF and power gain G
max
compared to previous gener-
ations and closest SiGe competitors.
Block diagram
2.4 GHz LNA
Power detector
5 GHz LNA
SPDT switch
SPDT switch
Antenna
2.4 / 5 GHz
Rx
g
Tx
g
2.4 GHz PA
SPDT switch
WiFi
Transceiver
ESD
diode
Rx
g
Tx
g
5 GHz PA
Power detector
Low-Noise Amplifiers (LNA) are key components required
to increase the system sensitivity and extend the max.
connecting distance for WiFi applications. Their primary
purpose involves delivering a superior performance where
Infineon’s ꢁ
th
generation RF SiGe Bipolar transistors act as
an LNA, delivering the lowest Noise Figure (NF) of 0.ꢂ dB at
5.5 GHz, and the highest gain thanks to their high frequency
(f
T
) and superior linearity compared to other solutions
losses of the whole RF front end become critical due to long
on the market. This outstanding performance delivers an
routing paths, for instance in WiFi architectures with 4 x 4
MIMO or ꢁ x ꢁ MIMO functions.
improvement in system sensitivity and interference immu-
nity enhancement, helping engineers to design high-perfor-
mance WiFi applications at an attractive price.
7
Infrastructure
Medium-power amplifiers
Infineon’s first generation
The BFPꢀꢁ0 and BFQꢀꢃ0 are Infineon’s new general-
purpose high-gain driver amplifiers based on Infineon’s
cost-effective Silicon Germanium (SiGe) technology.
Optimized for power gain and addressing a broad range of
wireless applications, they are a new addition to the
existing RF product portfolio.
single-stage driver amplifiers provide high linearity and
high gain for use at frequencies up to 3.0 GHz, while also
ensuring great flexibility in designs where high linearity is a
determining factor in component selection.
The emitter-base diode design provides the BFPꢀꢁ0 and
BFQꢀꢃ0 with high ruggedness even at high maximum RF
input power, whereas the silicon substrate conductivity and
low thermal resistance of the package make the devices
thermally resistant, facilitating high dissipated power val-
ues during operation.
Suitable for commercial and industrial wireless infra-
structure – such as 3G/4G, set-top boxes and CATV, along
with indoor and outdoor wireless access points – these
50
40
30
20
10
0
280
275
270
265
260
255
250
32
30
28
IP1dB
I
C
0.45 GHz
26
24
22
20
18
16
14
12
0.90 GHz
1.80 GHz
P
Out
G
2.60 GHz
3.50 GHz
PAE
-10
-25 -20
-15 -10
-5
P
In
[dBm]
0
5
10 15
0
20
40
60
I
C
[mA]
80
100 120
P
Out
, gain, I
C
, PAE vs. P
In
at V
CE
= 5 V,
I
Cq
= 250 mA, f = 2.ꢂ GHz, Z
I
= Z
Opt
Maximum power gain G
max
vs. I
C
at V
CE
= 5 V, f = parameter
Block diagram
LNA
Duplexer
Driver
PA
Transceiver
ESD
diode
BFP780
BFQ790
Driver amplifiers, also known as high linear gain blocks, are
an important functional block in RF transceiver systems.
The final stage of the transmitter chain in the transceiver
system, Power Amplifier (PA), requires a certain input
power level to deliver to the required output power, which
usually cannot be delivered by the transceiver IC directly.
In these cases, external one- or two-stage driver amplifiers
are required. Driver amplifiers provide the high gain linear
signal amplification from the transceiver IC to the PA. They
are generally operated in linear class-A mode to enable simul-
taneous high linearity and high gain, thereby keeping the
spurious signals generated by the PA down to a minimum.
8
RF transistors – product portfolio
RF transistors ꢀ
th
generation
Product name
OPN
I
C
(max.)
[mA]
NF
min
(typ)
[dB]
G
max
(typ)
[dB]
OIPꢁ
[dBm]
OPꢀdB
[dBm]
Package
BFPꢀ20
BFPꢀ20Hꢂ32ꢀXTSA1
20
20
25
25
45
45
35
35
30
ꢀ0
0.5
0.5
0.ꢂ
0.ꢂ
0.5
0.5
0.ꢂ
0.ꢂ
0.5
0.5
2ꢂ.0
2ꢂ.0
2ꢀ.0
2ꢀ.0
2ꢀ.0
2ꢀ.5
2ꢀ.0
2ꢀ.0
24.5
25.0
20.5
20.5
22.0
22.0
25.0
25.0
25.0
24.5
25.0
31.5
ꢂ.0
SOT343
TSFP-4-1
SOT343
TSFP-4-1
SOT343
TSFP-4-1
SOT343
TSFP-4-1
TSLP-3-ꢃ
SOT343
BFPꢀ20F
BFPꢀ20FHꢂ32ꢀXTSA1
BFPꢀ20ESDHꢂ32ꢀXTSA1
BFPꢀ20FESDHꢂ32ꢀXTSA1
BFPꢀ40Hꢂ32ꢀXTSA1
ꢂ.0
BFPꢀ20ESD
BFPꢀ20FESD
BFPꢀ40
ꢂ.5
ꢀ.0
11.0
11.0
10.0
10.0
11.0
14.5
BFPꢀ40F
BFPꢀ40FHꢂ32ꢀXTSA1
BFPꢀ40ESDHꢂ32ꢀXTSA1
BFPꢁ40FESDHꢂ32ꢀXTSA1
BFRꢀ40L3RHEꢂ32ꢀXTSA1
BFPꢀꢂ0Hꢂ32ꢀXTSA1
BFPꢀ40ESD
BFPꢀ40FESD
BFRꢀ40L3RH
BFPꢀꢂ0
RF transistors ꢁ
th
generation
Product name
OPN
NF
min
(typ)
[dB]
G
max
(typ)
[dB]
OIPꢁ
OPꢀdB
Package
[dBm]
24.0
23.5
21.0
21.0
21.0
24.5
1ꢀ.0
[dBm]
BFPꢁ43
BFPꢁ43Hꢂ32ꢀXTSA1
0.ꢃ5
0.ꢃ0
0.ꢃ5
0.ꢂ0
0.55
0.40
0.50
22.5
23.5
24.0
2ꢀ.0
2ꢀ.5
23.5
2ꢂ.5
ꢀ.0
SOT343
TSFP-4-1
TSLP-3-ꢃ
SOT343
TSFP-4-1
SOT343
TSLP-3-ꢃ
BFPꢁ43F
BFPꢁ43FHꢂ32ꢀXTSA1
ꢀ.0
BFRꢁ43EL3
BFPꢁ40ESD
BFPꢁ40FESD
BFPꢁ42ESD
BFRꢁ40L3RHESD
BFRꢁ43EL3Eꢂ32ꢀXTSA1
BFPꢁ40ESDHꢂ32ꢀXTSA1
BFPꢁ40FESDHꢂ32ꢀXTSA1
BFPꢁ42ESDHꢂ32ꢀXTSA1
BFRꢁ40L3RHESDEꢂ32ꢀXTSA1
ꢀ.0
4.5
4.5
ꢁ.0
4.0
Infrastructure
RF drivers
Product name
OPN
At ꢀ.9 GHz
At ꢃ.ꢆ GHz
Package
Gain
[dB]
OIPꢁ
[dBm]
OPꢀdB
[dBm]
Gain
[dB]
OIPꢁ
[dBm]
OPꢀdB
[dBm]
BFPꢀꢁ0
BFQꢀꢃ0
1)
BFPꢀꢁ0Hꢂ32ꢀXTSA1
1ꢁ
35
40
23
2ꢀ
14.4
14.0
35
40
23
SOT343
SOTꢁꢃ
BFQꢀꢃ0Hꢂ32ꢀXTSA1 1ꢀ
2ꢀ
1) Available as of Q4/201ꢂ
9
RF transistors – product portfolio
Infrastructure
Low-noise Si transistor up to 2.5 GHz
Product
name
SP No
OPN
Electrical characteristics
Package
V
CEO
(max)
[V]
I
C
(max)
[mA]
NF
min
(typ)
[dB]
G
max
(typ)
[dB]
OIPꢁ
OPꢀdB
f
T
(typ) P
tot
(max)
[GHz]
[dBm] [dBm]
[mW]
1ꢀ5.0
1ꢀ5.0
1ꢀ5.0
250.0
250.0
250.0
250.0
450.0
450.0
2ꢁ0.0
2ꢁ0.0
2ꢁ0.0
2ꢁ0.0
2ꢁ0.0
1ꢀ5.0
450.0
ꢂ0.0
BFP1ꢁ1
BFR1ꢁ1
SP000011013 BFP1ꢁ1Eꢀꢀꢂ4HTSA1
SP00001104ꢀ BFR1ꢁ1Eꢂ32ꢀHTSA1
12.0
12.0
20.0
20.0
20.0
35.0
35.0
35.0
35.0
ꢂ5.0
ꢂ5.0
45.0
45.0
25.0
25.0
25.0
20.0
ꢂ5.0
10.0
10.0
35.0
35.0
ꢂ5.0
0.ꢃ
0.ꢃ
0.ꢃ
0.ꢃ
0.ꢃ
0.ꢃ
0.ꢃ
0.ꢃ
0.ꢃ
1.4
1.4
3.5
3.0
3.5
0.ꢃ
0.ꢃ
1.15
1.15
1.0
1.0
0.ꢃ
21.0
1ꢁ.5
1ꢃ.0
22.0
22.0
1ꢁ.0
1ꢃ.0
22.0
1ꢀ.5
1ꢂ.0
1ꢂ.0
12.ꢀ
12.ꢀ
12.ꢀ
20.0
1ꢃ.0
1ꢂ.5
1ꢀ.5
15.5
1ꢂ.0
22.0
1ꢂ.5
1ꢁ.0
1ꢁ.0
24.0
24.0
24.5
25.0
2ꢂ.5
2ꢀ.0
24.0
24.0
21.5
22.5
22.5
1ꢁ.0
2ꢂ.5
13.0
12.5
24.0
24.0
2ꢂ.5
-2.0
-1.0
-1.0
5.0
ꢁ.0
SOT143-4-1
SOT23
ꢁ.0
BFR1ꢁ1W SP000ꢀ5041ꢁ BFR1ꢁ1WHꢂ32ꢀXTSA1 12.0
BFP1ꢁ2R SP00001101ꢂ
BFP1ꢁ2REꢀꢀꢂ4HTSA1 12.0
BFP1ꢁ2W SP000ꢀ451ꢀꢂ BFP1ꢁ2WHꢂ32ꢀXTSA1 12.0
BFR1ꢁ2 SP000011051
BFR1ꢁ2Eꢂ32ꢀHTSA1 12.0
ꢁ.0
SOT323
SOT143-4-1
SOT343
SOT23
ꢁ.0
5.0
ꢁ.0
5.0
ꢁ.0
BFR1ꢁ2W SP000ꢀ50420 BFR1ꢁ2WHꢂ32ꢀXTSA1 12.0
BFP1ꢁ3W SP000ꢀ45244 BFP1ꢁ3WHꢂ32ꢀXTSA1 12.0
5.0
ꢁ.0
SOT323
SOT343
SOT23
ꢁ.5
ꢁ.0
BFR1ꢁ3
SP000011054 BFR1ꢁ3Eꢂ32ꢀHTSA1
12.0
15.0
15.0
15.0
15.0
15.0
12.0
12.0
ꢂ.0
ꢃ.0
ꢁ.0
BFR35AP SP0000110ꢂ0
BFR35APEꢂ32ꢀHTSA1
ꢃ.0
5.0
SOT23
BFRꢃ2P
BFS1ꢀP
BFS1ꢀS
BFS1ꢀW
BFS4ꢁ1
BFS4ꢁ3
BFR340F
SP0000110ꢂ2 BFRꢃ2PEꢂ32ꢀHTSA1
SP0000110ꢀ3 BFS1ꢀPEꢂ32ꢀHTSA1
SP000ꢀ5044ꢁ BFS1ꢀSHꢂ32ꢀXTSA1
SP000ꢀ50450 BFS1ꢀWHꢂ32ꢀXTSA1
SP000ꢀ504ꢂ2 BFS4ꢁ1Hꢂ32ꢀXTSA1
SP000ꢀ504ꢂ4 BFS4ꢁ3Hꢂ32ꢀXTSA1
SP000ꢀ5042ꢂ BFR340FHꢂ32ꢀXTSA1
ꢃ.0
5.0
SOT23
10.0
11.0
11.0
-1.0
ꢃ.0
1.4
SOT23
1.4
SOT3ꢂ3
SOT323
SOT3ꢂ3
SOT3ꢂ3
TSFP-3-1
TSLP-3-ꢀ
TSFP-3-1
TSLP-3-1
SOT143
1.4
ꢁ.0
ꢁ.0
-1.0
-1.0
ꢃ.0
14.0
14.0
14.0
14.0
ꢁ.0
BFR340L3 SP00001355ꢁ
BFR340L3Eꢂ32ꢀXTMA1 ꢂ.0
BFR3ꢂ0F SP000ꢀ5042ꢁ
BFR3ꢂ0FHꢂ32ꢀXTSA1 ꢂ.0
BFR3ꢂ0L3 SP0000135ꢂ1
BFR3ꢂ0L3Eꢂꢀꢂ5XTMA1 ꢂ.0
BFP1ꢁ3 SP00001101ꢁ
BFP1ꢁ3Eꢀꢀꢂ4HTSA1 12.0
ꢂ0.0
210.0
210.0
250.0
ꢃ.0
ꢁ.5
Low-noise Si transistor up to 5 GHz
Product
name
SP No
OPN
Electrical characteristics
Package
V
CEO
(max)
[V]
I
C
NF
min
(typ)
[dB]
G
max
(typ)
[dB]
OIPꢁ
OPꢀdB f
T
(typ)
[dBm]
P
tot
(max)
(max)
[mA]
12.0
12.0
40.0
35.0
35.0
50.0
40.0
40.0
ꢁ0.0
ꢁ0.0
ꢁ0.0
50.0
[dBm]
15.0
14.0
23.5
22.0
24.0
2ꢀ.5
25.0
23.5
24.5
24.5
24.5
2ꢀ.0
[GHz]
25.0
25.0
25.0
25.0
25.0
22.0
45.0
45.0
30.0
30.0
30.0
22.0
[mW]
BFP405
SP000ꢀ45254 BFP405Hꢂ32ꢀXTSA1
SP000ꢀ4525ꢁ BFP405FHꢂ32ꢀXTSA1
SP000ꢀꢂ2244 BFP410Hꢂ32ꢀXTSA1
SP000ꢀ452ꢂ0 BFP420Hꢂ32ꢀXTSA1
SP000ꢀ452ꢂꢁ BFP420FHꢂ32ꢀXTSA1
SP000ꢀ452ꢀꢂ BFP4ꢂ0Hꢂ32ꢀXTSA1
SP000ꢀ452ꢁ0 BFP520Hꢂ32ꢀXTSA1
SP000ꢀ452ꢁ2 BFP520FHꢂ32ꢀXTSA1
SP000ꢀ452ꢁꢁ BFP540Hꢂ32ꢀXTSA1
4.5
4.5
4.5
4.5
4.5
4.5
2.5
2.5
4.5
4.5
1.25
1.25
1.2
23.0
22.5
21.5
21.0
1ꢃ.5
1ꢀ.5
23.5
22.5
21.5
21.5
20.0
1ꢂ.0
5.0
55.0
SOT343
TSFP-4-1
SOT343
SOT343
TSFP-4-1
SOT343
SOT343
TSFP-4-1
SOT343
SOT343
TSFP-4-1
TSLP-3-1
BFP405F
BFP410
0.0
55.0
10.5
12.0
10.5
11.5
12.0
10.5
11.0
11.0
11.0
11.5
150.0
1ꢂ0.0
1ꢂ0.0
200.0
100.0
100.0
250.0
250.0
250.0
200.0
BFP420
1.1
BFP420F
BFP4ꢂ0
1.1
1.1
BFP520
0.ꢃ5
0.ꢃ5
0.ꢃ
BFP520F
BFP540
BFP540ESD
SP000ꢀ452ꢃꢁ BFP540ESDHꢂ32ꢀXTSA1
0.ꢃ
BFP540FESD SP000ꢀ45300
BFP540FESDHꢂ32ꢀXTSA1 4.5
BFR4ꢂ0L3 SP00001423ꢁ
BFR4ꢂ0L3Eꢂ32ꢀXTMA1 4.5
0.ꢃ
1.1
10
Ultra-low-noise SiGe:C transistors up to 12 GHz
Product
name
SP No
OPN
Electrical characteristics
Package
V
CEO
(max)
[V]
I
C
(max)
[mA]
NF
min
(typ)
[dB]
G
max
(typ)
[dB]
OIPꢁ
OPꢀdB f
T
(typ)
P
tot
(max)
[mW]
[dBm]
2ꢀ.0
2ꢂ.0
25.5
25.0
2ꢂ.5
2ꢀ.5
[dBm]
12.0
11.5
14.5
14.0
13.0
13.5
[GHz]
4ꢂ.0
4ꢂ.0
ꢂ5.0
ꢂ5.0
40.0
40.0
BFPꢂ40ESD
SP000ꢀꢁ54ꢁ2 BFPꢂ40ESDHꢂ32ꢀXTSA1
4.1
50.0
50.0
ꢁ0.0
ꢁ0.0
50.0
50.0
0.ꢂ5
0.55
0.ꢀ
25.0
2ꢂ.5
21.5
21.0
24.0
23.0
200.0
200.0
1ꢁ5.0
1ꢁ5.0
200.0
200.0
SOT343
TSFP-4-1
SOT343
TSFP-4-1
SOT343
TSFP-4-1
BFPꢂ40FESD SP000ꢁꢃ0034
BFPꢂ40FESDHꢂ32ꢀXTSA1 4.1
BFPꢂ20
BFPꢂ20F
BFPꢂ40
BFPꢂ40F
SP000ꢀ45302 BFPꢂ20Hꢀꢀꢂ4XTSA1
SP000ꢀ45304 BFPꢂ20FHꢀꢀꢂ4XTSA1
SP000ꢀ4530ꢂ BFPꢂ40Hꢂ32ꢀXTSA1
SP000ꢀ50404 BFPꢂ40FHꢂ32ꢀXTSA1
2.3
2.3
4.0
4.0
0.ꢀ
0.ꢂ5
0.ꢂ5
High-linearity Si-and SiGe:C transistors up to ꢂ GHz
Product
name
SP No
OPN
Electrical characteristics
Package
V
CEO
(max)
[V]
I
C
(max)
[mA]
NF
min
(typ)
[dB]
G
max
(typ)
[dB]
OIPꢁ
OPꢀdB f
T
(typ)
[GHz]
P
tot
(max)
[mW]
[dBm]
32.0
30.0
30.0
32.0
2ꢃ.5
2ꢃ.5
30.0
2ꢃ.0
30.0
2ꢃ.0
32.0
2ꢃ.0
2ꢃ.5
2ꢃ.0
2ꢃ.5
31.0
32.0
[dBm]
22.0
15.0
15.0
22.0
15.0
15.0
15.0
14.ꢁ
15.0
15.0
1ꢃ.0
1ꢀ.0
1ꢂ.0
1ꢃ.0
1ꢁ.0
1ꢀ.5
1ꢃ.0
BFQ1ꢃS
BFRꢃ3A
SP000011042 BFQ1ꢃSEꢂ32ꢀHTSA1
SP0000110ꢂꢂ BFRꢃ3AEꢂ32ꢀHTSA1
15.0
12.0
210.0
ꢃ0.0
1.ꢁ
1.5
1.5
1.ꢁ
1.0
1.0
1.0
1.0
1.3
1.0
1.3
1.1
1.1
1.25
0.ꢁ
0.ꢁ
1.3
11.5
14.5
15.5
13.0
1ꢁ.0
20.5
15.0
1ꢃ.0
1ꢂ.0
1ꢃ.0
1ꢃ.0
13.5
13.5
15.5
21.5
21.5
1ꢃ.0
5.5
1.0
SOTꢁꢃ
ꢂ.0
300.0
300.0
ꢀ00.0
5ꢁ0.0
5ꢁ0.0
5ꢁ0.0
5ꢁ0.0
5ꢁ0.0
5ꢁ0.0
ꢀ00.0
3ꢁ0.0
3ꢁ0.0
450.0
500.0
500.0
ꢀ00.0
SOT23
BFRꢃ3AW
BFR10ꢂ
SP000ꢀ34402 BFRꢃ3AWHꢂ32ꢀXTSA1
12.0
ꢃ0.0
ꢂ.0
SOT323
SOT23
SP000011044 BFR10ꢂEꢂ32ꢀHTSA1
SP000011024 BFP1ꢃ3Eꢂ32ꢀHTSA1
15.0
12.0
210.0
ꢁ0.0
5.0
BFP1ꢃ3
ꢁ.0
SOT143-4-1
SOT343
SOT23
BFP1ꢃ3W
BFR1ꢃ3
SP000ꢀ4524ꢁ BFP1ꢃ3WHꢂ32ꢀXTSA1
12.0
ꢁ0.0
ꢁ.0
SP00001105ꢂ BFR1ꢃ3Eꢂ32ꢀHTSA1
SP000ꢀ50424 BFR1ꢃ3FHꢂ32ꢀXTSA1
12.0
12.0
ꢁ0.0
ꢁ.0
BFR1ꢃ3F
BFR1ꢃ3W
BFR1ꢃ3L3
BFP1ꢃꢂW
BFR3ꢁ0F
BFR3ꢁ0L3
BFP450
ꢁ0.0
ꢁ.0
TSFP-3-1
SOT323
TSLP-3-1
SOT343
TSFP-3-1
TSLP-3-1
SOT343
SOT343
TSFP-4-1
SOT143-4-1
SP000ꢀ34404 BFR1ꢃ3WHꢂ32ꢀXTSA1
12.0
SP00001355ꢀ BFR1ꢃ3L3Eꢂ32ꢀXTMA1 12.0
SP000ꢀ45250 BFP1ꢃꢂWHꢂ32ꢀXTSA1
12.0
ꢁ0.0
ꢁ.0
ꢁ0.0
ꢁ.0
150.0
ꢁ0.0
ꢀ.5
SP000ꢀ50444 BFR3ꢁ0FHꢂ32ꢀXTSA1
ꢂ.0
14.0
14.0
24.0
3ꢀ.0
42.0
ꢀ.5
SP0000135ꢂ2 BFR3ꢁ0L3Eꢂ32ꢀXTMA1 ꢂ.0
ꢁ0.0
SP000ꢀ452ꢀ0 BFP450Hꢂ32ꢀXTSA1
SP000ꢀ5040ꢂ BFPꢂ50Hꢂ32ꢀXTSA1
SP000ꢀ5040ꢁ BFPꢂ50FHꢂ32ꢀXTSA1
SP00001102ꢀ BFP1ꢃꢂEꢂ32ꢀHTSA1
4.5
4.0
4.0
12.0
100.0
150.0
150.0
150.0
BFPꢂ50
BFPꢂ50F
BFP1ꢃꢂ
11
PIN diodes
Operating at up to 3 GHz with high-voltage handling capa-
bilities, Infineon Technologies PIN diodes are ideal for a
wide range of mobile communication and RF applications.
Their low loss and low distortion levels improve battery
life and quality in cellular and cordless phones.
resistance, diode capacitance and series inductance.
These inherent qualities are largely due to a state-of-the-
art planar diffusion process. Available in a range of
highly compact package options – including TSLP and the
leadless – significant board space savings can be made,
helping designers create smaller, lighter end-products.
Along with an outstanding RF performance, these diodes
simplify design-in thanks to their extremely low forward
Key features
Technical benefits
Customer benefits
Low insertion loss (low r )
High isolation (low capacitance C )
Low power consumption (low I )
Low level of high-frequency distortion
Broad product portfolio
Package miniaturization
Single and dual configuration
High linearity
Fast switching time for Rx-Tx antenna
switches
Low insertion loss and low dissipated
power in Rx-Tx antenna switches
Enhanced overall RF performance
Flexibility in circuit design with a focus on
required parameters
Easily adaptable to different applications/
frequencies
Enhanced versatility in design conception
Improved system efficiency
›
›
›
›
›
›
f
›
t
›
F
›
›
›
›
›
›
›
Customer benefits – space saving
±±0.
209
±±0.
±08
Small form factor: ꢀ0% of package
›
±±0±ꢀ3
±0ꢀ2
profile increases design flexibility
ꢃ0% reduction of parasitics
Improved RF performance at
insertion
›
›
SOT23
SC79
TSSLP-2-1, -2
12
Application example: single-antenna cordless phone
LNA
BPF
Two single PIN diodes or one dual diode are at the core of
an SPDT switch
›
›
Depending on the bias voltage, one of the diodes is in
“short
”
,
a
nother in “open” state, effectively connecting
either the Tx or Rx path to the antenna
Infineon PIN diodes are ideal for building a switch which
simultaneously delivers a low insertion loss and high
isolation
Rx
Tx
SPDT
switch
Transceiver
IC
›
Buer
amplifier
ESD
diode
BPF
BPF
Low-noise amplifier
BFP640, BFP740, BFP840
Buꢀer amplifier
BFP450, BFP650, BFP750
ANT SW
PIN diodes
BAR64-xx, BAR63-xx,
BAR90-xx
TVS diode
ESD108, ESD128,
ESD129
Infrastructure
PIN diodes – product portfolio
C
T
series
[pF]
Product name
C
T
at ꢀ V
[pF]
R
f
at ꢀ0 mA
[
Ω
]
τ
rr
Package
> 50 pF
BA5ꢃ2
BAR14-1/15-1/1ꢂ-1
BARꢂ1
BARꢂ4-03W, -02V
BARꢂ4-02EL
BARꢂ4-04/05/0ꢂ/*0ꢀ
BARꢂ4-04W/05W/0ꢂW
BARꢂ5-03W, -02V
BARꢂꢂ
BARꢂꢀ-02V
BARꢂꢀ-04
BAꢁꢁ5, BA5ꢃ5
BAꢁꢃ5-02V
BARꢁꢁ-02V
BARꢁꢁ-02LRH
1)
BARꢁꢃ-02LRH
1)
BARꢃ0-02EL, -02ELS
BARꢃ0-02LRH
1)
BARꢃ0-0ꢁ1LS
BAT1ꢁ-04,-05
BAR50-03W, -02V
BAR50-02L
BARꢂ3-03W, -02V
BARꢂ3-02L
BARꢂ3-04/05/0ꢂ
BARꢂ3-04W/05W/0ꢂW
0.ꢃ2
0.3ꢂ
ꢀ.00
ꢀ.00
2.10
2.10
2.20
2.30
0.ꢂ0
1.00
1.00
1.00
4.50
4.50
0.ꢂ0
0.ꢂ0
0.ꢁ0
0.ꢁ0
0.ꢁ0
0.ꢁ0
0.40
3.00
3.00
1.00
1.00
1.00
1.00
120 ns
1.0 µs
1.0 µs
1.55 µs
1.55 µs
1.55 µs
1.55 µs
ꢁ0 ns
ꢀ00 ns
ꢀ00 ns
ꢀ00 ns
1.ꢂ µs
1.ꢂ µs
0.5 µs
0.5 ms
0.ꢁ µs
0.ꢀ5 µs
0.ꢀ5 µs
0.ꢀ5 µs
120 ns
1.1 µs
1.1 µs
ꢀ5 ns
SOD323
SOT23
SOT143
SOD323, SCꢀꢃ
TSLP-2
SOT23, *SOT143
SOT323
SOD323, SCꢀꢃ
SOT23
SCꢀꢃ
SOT23
SOT23, SOD323
SCꢀꢃ
SCꢀꢃ
TSLP-2-RH
TSLP-2-RH
TSLP-2, TSSLP-2
TSLP-2-RH
TSSLP-ꢁ
SOT23
SOD323, SCꢀꢃ
TSLP-2
SOD323, SCꢀꢃ
TSLP-2
SOT23
D
0.50
0.50
0.45
0.45
0.45
0.45
0.45
0.45
0.40
0.40
0.35
0.35
0.30
0.30
0.25
0.25
0.25
0.25
0.ꢀ5
0.24
0.24
0.23
0.23
0.23
0.23
D
D
< 50 pF
D
Q
D
≤
25 pF
ꢀ5 ns
ꢀ5 ns
ꢀ5 ns
D
D
SOT323
1) Not recommended for new designs
D = Double configuration
Q = Quad configuration
13
Schottky diodes
Infineon RF Schottky diodes are silicon low-barrier N-type
devices and, unlike other solutions available on the mar-
ket, they come with
various junction diode configurations
which can be used for highly sensitive power detector
circuits, and in sampling or mixer circuits.
A very
low barrier height
and
very small forward voltage
,
along with
low junction capacitance
, make this series
of devices an excellent choice as a detector function at fre-
quencies as high at 24 GHz.
Key features
Technical benefits
Customer benefits
Low leakage current (low R )
Low signal distortion level
High efficiency / low losses
Low power consumption
Guard-ring protection on chip
Broad product portfolio
Package miniaturization
Fast switching
Tailored for low-/medium-power
detection circuits
Wide dynamic range in detector
applications
Higher linearity and power handling
capability compared to integrated mixers
Flexibility in circuit design with a focus on
required parameters
›
›
›
f
›
›
›
›
Easy adaptability to different
applications/frequencies
Easy detector/mixer design due to width
Enhanced versatility in design conception
Improved system efficiency
›
›
›
›
›
›
›
›
›
Application example: 24GHz radar system
24 GHz
Double-balanced mixer
Buꢀer
VCO
Balun
LNA
amplifier
to baseband
Schottky diode
BAT24-02ELS
Unbalanced, single-balanced or double-balanced mixer
topology depending on application requirements
Balanced mixer offers good RF isolation
Double-balanced mixer also provides good isolation
between LO, RF and IF
Target applications
›
Wireless LAN and WiFi routers
Mobile devices
›
›
›
›
›
24 GHz radar system preferring discretes solutions
14
Schottky diodes – product portfolio
Product name
V
R
(max)
[V]
I
F
(max)
[mA]
C
T
[pF]
V
F
at ꢀ mA
[mV]
Package
BAT15-02EL/-02ELS
BAT15-03W
BAT15-04W
BAT15-05W
BAT15-04R
BAT15-0ꢃꢃ/-0ꢃꢃLRH
1)
BAT15-0ꢃꢃR
BAT1ꢀ
4
110
110
110
110
110
110
110
130
130
130
130
130
130
110
20
0.2ꢂ
0.2ꢂ
0.2ꢂ
0.2ꢂ
0.2ꢂ
0.2ꢂ
0.3ꢁ
0.55
0.55
0.55
0.55
0.55
0.ꢀ5
0.21
0.35
0.35
0.35
0.35
0.35
0.ꢂ5
0.ꢂ5
0.ꢀ5
0.ꢀ5
0.ꢀ5
230
230
230
230
230
230
230
340
340
340
340
340
340
230
440
440
440
440
440
1ꢃ0
1ꢃ0
31ꢁ
31ꢁ
31ꢁ
TSLP-2/TSSLP-2
SOD323
4
D
D
D
D
Q
4
SOT323
4
SOT323
4
SOT23
4
SOT143/TSLP-4
SOT143
4
4
SOT23
BAT1ꢀ-04/W
BAT1ꢀ-05
D
D
D
D
D
4
SOT23/SOT323
SOT23
4
BAT1ꢀ-05W
BAT1ꢀ-0ꢂW
BAT1ꢀ-0ꢀ
4
SOT323
4
SOT323
4
SOT143
BAT24-02LS
BATꢂ2
4
TSSLP
40
40
40
40
40
3
SOT143
BATꢂ2-02L/-02LS
BATꢂ2-02V/-03W
BATꢂ2-0ꢀL4
BATꢂ2-0ꢀW
BATꢂ3-02V
120
20
TSLP-2/TSSLP-2
SCꢀꢃ/SOD323
TSLP-4
D
D
20
20
SOT343
100
100
130
130
130
SCꢀꢃ
BATꢂ3-0ꢀW
BATꢂꢁ
D
3
SOT343
ꢁ
SOT23
BATꢂꢁ-04/W
BATꢂꢁ-0ꢂ/W
D
D
ꢁ
SOT23/SOT323
SOT23/SOT323
ꢁ
1) Not recommended for new designs
D = Double configuration
Q = Quad configuration
15
RF diodes portfolio by package
PIN diodes
Antenna switches
SOD323
SC79
SOT23
SOT143
SOT323
TSLP-2
TSSLP-2
TSSLP-8
BAR50-03W
BAR63-03W
BAR64-03W
BAR65-03W
BAR50-02V
BAR63-02V
BAR64-02V
BAR65-02V
BAR67-02V
BAR63-04
BAR63-05
BAR63-06
BAR64-04
BAR64-05
BAR64-06
BAR67-04
BAR64-07
BAR63-04W
BAR63-05W
BAR63-06W
BAR63-04W
BAR63-05W
BAR63-06W
BAR50-02L
BAR63-02L
BAR64-02EL
BAR90-02EL
BAR90-02ELS
BAR90-081LS
BAR88-02V
BA885-02V
BAR88-02LRH
BAR89-02LRH
BAR90-02LRH
RF attenuators
BA595
BA885
BAR61
BAR14-1
BAR15-1
BAR16-1
Recommended for new designs
Not recommended for new designs
Schottky diodes
Mixer
SOD323
SC79
SOT23
SOT143
SOT323
TSLP-2
TSSLP-2
TSLP
BAT15-03W
BAT15-04R
BAT17
BAT17-04
BAT17-05
BAT15-099
BAT17-06W
BAT15-04W
BAT15-05W
BAT17-04W
BAT17-05W
BAT17-06W
BAT15-02EL
BAT15-02ELS
BAT24-02LS
BAT15-099
BAT62
BAT15-099LRH
Power detector
BAT62-03W
BAT62-02V
BAT63-02V
BAT68
BAT68-04
BAT68-06
BAT62-07W
BAT63-07W
BAT68-04W
BAT68-06W
BAT62-02L
BAT62-02LS
Recommended for new designs
Not recommended for new designs
16
Infineon support for RF discretes
Useful links and helpful information
Further information, datasheets and documents
Evaluationboards
Simulation Models
Videos
Simulation
17
Cross reference list
RF transistors
Product name
BFP1ꢁ1
Manufacturer product
BFR505/T
1)
BFU520X
2)
Manufacturer Product
family
Product name
BFP1ꢁ2W
BFP1ꢁ3
Manufacturer product
2SC5012
2)
/2SC5015
2)
2SC40ꢃ4
2)
/2SC4ꢃ5ꢀ
2SC40ꢃ3
2)
/2SC5455
2)
2SC422ꢀ
2)
/2SC5011
2)
2SC40ꢃ3
1) 2)
/2SC422ꢀ
2SC40ꢃ3
2)
Manufacturer Product
family
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
NXP
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
RF Transistors
BFP1ꢁ2
BFP1ꢁ2R
BFP1ꢁ2W
BFP1ꢁ3
BFU520XR
2)
BFP1ꢃ3
BFU520W
BFP1ꢃ3W
BFP1ꢃꢂ
BFU530X
BFP1ꢁ3W
BFP1ꢃ3
BFU530W
BFP1ꢃꢂW
BFR35AP
BFRꢃ3AW
BFR1ꢁ1
BFG540/X
2SA1ꢃꢀꢀ
BFP1ꢃ3W
BFP1ꢃꢂ
BFG540W/XR
BFG540/X
2SC422ꢂ
2SC550ꢁ
1)
2SC550ꢁ
1)
/2SC5010
1)
2SC500ꢀ
1)
2SC500ꢀ
1)
BFP1ꢃꢂW
BFR35AP
BFRꢃ3A
BFG540W/XR
BFT25A
BFR1ꢁ1W
BFR1ꢁ2W
BFR1ꢁ3W
BFR1ꢃ3F
BFQ1ꢃS
BFTꢃ3A
BFRꢃ3AW
BFR1ꢁ1
BFTꢃ3W
2SC500ꢂ
1)
BFG505XN
BFU520A
2SC335ꢀ/40ꢃ5/453ꢂ/4ꢀ03 Renesas
2SC5ꢂ0ꢂ
1)
2SC5ꢂ0ꢂ
1)
2SC550ꢁ
2)
BFR1ꢁ2
BFR340F
BFR3ꢂ0F
BFP420
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Renesas
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
Toshiba
BFR1ꢁ2W
BFR1ꢁ3
BFS520W/PRFꢃ4ꢀ
BFU530A
BFR1ꢁ3W
BFR1ꢃ3
BFU530W/PRFꢃ4ꢀ
BFU550A
BFP450
2SC550ꢃ
2)
BFS4ꢁ1
2SC5ꢂ0ꢂ
1) 2)
2SC5455
1) 2)
2SC550ꢃ(NEꢂꢂ3M04)
2SC50ꢁꢀ
BFS1ꢀP
BFS1ꢀA
BFS4ꢁ3
BFR340F
BFP405
BFG325XR
1)
BFRꢀ50EL3
BFP1ꢁ3W
BFP1ꢃ3
BFG410W
BFP420
BFG425W
2SC50ꢁꢀR
BFP450
BFG21W/BFG4ꢁ0W
BFG4ꢁ0W
1)
/BFUꢂꢂ0F
BFG4ꢁ0W
1)
/BFUꢂꢂ0F
BFUꢂ10F
BFP1ꢃ3W
BFP1ꢃꢂW
BFR35AP
BFRꢃ3AW
BFR10ꢂ
2SC4ꢁ42
BFP540
2SC4ꢁ42
BFP540ESD
BFPꢂ20
MT3S1ꢃR
MT3S1ꢂU
MT3S113/MT3S111
2)
BFPꢂ40
BFUꢂ30F
BFPꢂ40ESD
BFPꢂ50
BFUꢂ30F
BFR1ꢁ1W
BFR1ꢁ2
2SC50ꢃ0
BFUꢂꢂ0F
2SC50ꢂ4
BFPꢀ20
BFUꢀ10F
BFR1ꢁ2W
BFR1ꢁ3
2SC50ꢂ5
BFPꢀ20ESD
BFPꢀ40
BFUꢀ10F
2SC50ꢁ4
BFUꢀ25F/BFUꢀ30F
BFUꢀ25F/BFUꢀ30F
BFUꢀꢂ0F
BFR1ꢁ3W
BFR1ꢃ3
2SC50ꢁ5
BFPꢀ40ESD
BFPꢀꢂ0
2SC50ꢁ4
2SC50ꢁꢂ
1)
BFR1ꢃ3F
BFR1ꢃ3W
BFP405
BFRꢀ40EL3
BFPꢁ40ESD
BFPꢁ43
BFUꢀ30LX
2SC50ꢁ5
BFUꢀ10F
MT4S34U
BFUꢀ30F
BFP420
MT4S200U
MT4S24U
1)
/MT4S03BU
MT4S300U/MT4S301U
BFRꢁ43EL3
BGBꢀ0ꢀLꢀESD
BFUꢀ30LX
BFP450
BGUꢂ102
BFP540ESD
1) In a different package
2) In a different pinning
18
RF diodes
Product name
Manufacturer
Manufacturer
Product family
Product name
Manufacturer
product
Manufacturer
Product family
product
BARꢂ4-03W
BARꢂ4-04
BAPꢂ4-03
BAPꢂ4-04
BAPꢂ4-04W
BAPꢂ4-05
BAPꢂ4-05W
BAPꢂ4-0ꢂ
BAPꢂ4-0ꢂW
BAPꢂ5-02
BAPꢂ5-03
BAP51-02
BAPꢂ5LX
BAPꢂ5-02
BAP142LX
1SV251
NXP
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
RF PIN Diodes
BAT15-02EL
BAT15-02ELS
BAT15-02LRH
BAT15-02LS
BAT15-03W
BAT15-04W
BAT15-03W
BAT1ꢀ
HSMS2ꢁꢂx
HSMS2ꢁꢂx
HSMS2ꢁꢂx
HSMS2ꢁꢂx
HSMS2ꢁꢂx
HSMS2ꢁꢂx
1PSꢀꢂSB1ꢀ
BAT1ꢀ
Avago
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Schottky Diodes
RF Pin Diodes
NXP
Avago
BARꢂ4-04W
BARꢂ4-05
NXP
Avago
NXP
Avago
BARꢂ4-05W
BARꢂ4-0ꢂ
NXP
Avago
NXP
Avago
BARꢂ4-0ꢂW
BARꢂ5-02V
BARꢂ5-03W
BARꢂꢀ-02V
BARꢁꢁ-02LRH
BARꢁꢁ-02V
BARꢁꢃ-02LRH
BAR14-1
NXP
NXP
NXP
NXP
NXP
BAT1ꢀ-04
BATꢂ2
PMBD353
BAS40-0ꢀ
1PSꢀꢃSB30
1PSꢀꢂSB21
1PSꢀ0SBꢁ2
1PSꢀ0SBꢁ5
1PSꢀ0SBꢁꢂ
BAT54SW
BAT1ꢀ
NXP
NXP
NXP
NXP
BATꢂ2-02V
BATꢂ3-02V
BATꢂꢁ
NXP
NXP
NXP
NXP
NXP
Onsemi
Onsemi
Onsemi
Onsemi
Vishay
Vishay
Vishay
BATꢂꢁ-04W
BATꢂꢁ-0ꢂ
BAT15-04W
BAT1ꢀ
NXP
BARꢂ4-04
1SV251
NXP
BARꢂ4-04W
BARꢂ5-03W
BAꢁꢁ5
1SV2ꢂ4
ST Microelectronics
ST Microelectronics
ST Microelectronics
ST Microelectronics
ST Microelectronics
ST Microelectronics
ST Microelectronics
ST Microelectronics
ST Microelectronics
Toshiba
MMVL3401
BAꢀꢀꢃ-G
BAT1ꢀ-04
BAT1ꢀ-04W
BAT1ꢀ-04W
BAT1ꢀ-05
BAT1ꢀ-05W
BAT1ꢀ-0ꢂ
BAT1ꢀ-0ꢂW
BAT15-0ꢃꢃ
BAT1ꢀ
BASꢀ0-04
BAT54SW
BASꢀ0-04W
BASꢀ0-05
BASꢀ0-05W
BASꢀ0-0ꢂ
BASꢀ0-0ꢂW
SMS3ꢃ2ꢂ-023
JDH2S01FS
JDH2S01FS
JDH2S01FS
JDH2S01FS
1SS2ꢀ1
BAR14-1
S3ꢃ2D-G
BARꢂ4-05W
BARꢂ4V-05W
Toshiba
BAT1ꢀ-04
BAT1ꢀ-04W
BAT1ꢀ-0ꢀ
BATꢂꢁ-0ꢂ
BATꢂ4
Toshiba
Toshiba
Toshiba
Toshiba
1SS2ꢃ4
Toshiba
BATꢂꢁ-0ꢂ
BAT15-03W
BAT15-02EL
BAT15-02EL
BAT15-02ELS
BA5ꢃ5
1SS2ꢃ5
Toshiba
1SS315
Toshiba
JDH2S01FS
JDH2S02FS
JDH2S02SL
BAPꢀ0-03
BAP50-02
BAP142LX
BAPꢂ4-02
Toshiba
Toshiba
Toshiba
NXP
BAR50-02V
BARꢂ3-02L
BARꢂ4-02V
NXP
RF Pin Diodes
NXP
RF Pin Diodes
NXP
RF Pin Diodes
19
Where to buy
Infineon distribution partners and sales offices:
Service hotline
Infineon offers its toll-free 0ꢁ00/4001 service hotline as one central number,
available 24/ꢀ in English, Mandarin and German.
Germany ……………….. 0ꢁ00 ꢃ51 ꢃ51 ꢃ51 (German/English)
China, mainland
……. 4001 200 ꢃ51 (Mandarin/English)
India ……………………..
000 ꢁ00 4402 ꢃ51 (English)
USA ………………………. 1-ꢁꢂꢂ ꢃ51 ꢃ51ꢃ (English/German)
Other countries ……… 00* ꢁ00 ꢃ51 ꢃ51 ꢃ51 (English/German)
Direct access
…………. +4ꢃ ꢁꢃ 234-0 (interconnection fee, German/English)
›
›
›
›
›
›
* Please note: Some countries may require you to dial a code other than “00” to access this international number.
Mobile product catalog
Mobile app for iOS and Android.
Please note!
Additional information
THIS DOCUMENT IS FOR INFORMATION PURPOSES ONLY AND
ANY INFORMATION GIVEN HEREIN SHALL IN NO EVENT BE
REGARDED AS A WARRANTY, GUARANTEE OR DESCRIPTION OF
For further information on technologies, our products, the
application of our products, delivery terms and conditions
and/or prices, please contact your nearest Infineon Technologies
office (www.infineon.com).
Published by
Infineon Technologies AG
ꢁ1ꢀ2ꢂ Munich, Germany
ANY FUNCTIONALITY, CONDITIONS AND/OR QUALITY OF OUR
PRODUCTS OR ANY SUITABILITY FOR A PARTICULAR PURPOSE.
WITH REGARD TO THE TECHNICAL SPECIFICATIONS OF OUR
PRODUCTS, WE KINDLY ASK YOU TO REFER TO THE RELEVANT
PRODUCT DATA SHEETS PROVIDED BY US. OUR CUSTOMERS AND
THEIR TECHNICAL DEPARTMENTS ARE REQUIRED TO EVALUATE
THE SUITABILITY OF OUR PRODUCTS FOR THE INTENDED
APPLICATION.
Warnings
Due to technical requirements, our products may contain
dangerous substances. For information on the types in question,
please contact your nearest Infineon Technologies office.
© 201ꢂ Infineon Technologies AG.
All rights reserved.
Except as otherwise explicitly approved by us in a written
document signed by authorized representatives of Infineon
Technologies, our products may not be used in any life-
endangering applications, including but not limited to medical,
nuclear, military, life-critical or any other applications where a
failure of the product or any consequences of the use thereof
can result in personal injury.
WE RESERVE THE RIGHT TO CHANGE THIS DOCUMENT AND/OR
THE INFORMATION GIVEN HEREIN AT ANY TIME.
Order number: B132-I031ꢃ-V1-ꢀꢂ00-EU-EC-P
Date: 0ꢃ / 201ꢂ
