Linear ........................................ 200 V
Audio ......................................... 150 V
Sliding Noise ........................ 47 mV max.
Mechanical Characteristics
Mechanical Angle .................... 300 ° ±5 °
Rotational Torque .......... 10 to 150 gf-cm
Detent Torque ............... 150 to 500 g-cm
Stop Strength ..................... 5 kg-cm min.
Rotational Life ................... 15,000 cycles
Soldering Condition
........... 260 °C max. within 3 seconds
Hardware .................One flat washer and
mounting nut supplied per
potentiometer with bushing
Derating Curve
Product Dimensions
PDB181-K
L
2.0
(.078)
9.5
(.374)
6.5
(.255)
6.5
(.255)
9.5
(.374)
PDB181-A
L
2.0
(.078)
6.0
DIA.
(.236)
A
6.0
DIA.
(.236)
A
2.0
(.078)
16.5
DIA.
(.649)
0.5
(.019)
M7 x P0.75
1.0
(.039)
18 TEETH
KNURL
2.0
(.078)
1.0
(.039)
M7 x P0.75
17.0
(.669)
18 TEETH
KNURL
3.6
(.141)
17.0
DIA.
(.669)
8.4
(.330)
1.2
(.047)
30
°
13.5
(.531)
18.0
±
0.5
(.708
±
.019)
2.8
(.110)
12.5
(.492)
3.6
(.141)
2.5
(.098)
15.0
(.590)
4.0
(.157)
1
1.0
(.039)
5.0
(.196)
2
3
4.0
(.157)
5.0
(.196)
8.4
(.330)
1.2
.047)
Rating Power Ratio (%)
100
80
60
40
33
20
0
30
°
SHAFT SHOWN IN CCW POSITION
0
10 20 30 40 50 60 70 80 90 100
DIMENSIONS:
MM
(INCHES)
Ambient Temperature (°C)
1
2
2
10.0
(.393)
3
1.0
(.039)
1
3
SCHEMATIC
SHAFT SHOWN IN CCW POSITION
*RoHS Directive 2002/95/EC Jan. 27, 2003 including annex and RoHS Recast 2011/65/EU June 8, 2011.
Specifications are subject to change without notice.
The device characteristics and parameters in this data sheet can and do vary in different applications and actual device performance may vary over time.
Users should verify actual device performance in their specific applications.
Additional Features
■
Linear, audio and reverse audio taper
Applications
■
Audio/TV sets
■
Car radio
■
Amplifiers/mixers/drum machines/
options
■
RoHS compliant*
synthesizers
■
PCs/monitors
■
Appliances
PDB18 Series - 17 mm Rotary Potentiometer
Product Dimensions
PDB181-B
L
6.5
(.255)
PDB181-E
L
6.5
(.255)
2.0
(.078)
9.5
(.374)
PDB181-D
L
6.5
(.255)
2.0
(.078)
9.5
(.374)
2.0
(.078)
9.5
(.374)
A
6.0
DIA.
(.236)
A
16.5
DIA.
(.649)
2.0
(.078)
M7 x P0.75
DIA.
6.0
(.236)
16.5
(.649)
DIA.
A
DIA.
6.0
(.236)
1.0
(.039)
18 TEETH
KNURL
2.0
(.078)
1.0
(.039)
M7 x P0.75
18 TEETH
KNURL
3.5
(.137)
17.0
(.669)
8.4
(.330)
1.2
(.047)
23.0
±
0.5
(.905
±
.019)
2.8
(.110)
3.5
(.137)
1
17.0
DIA.
(.669)
2.0
1.0
(.078)
(.039)
M7 x P0.75
18 TEETH
KNURL
0.5
(.019)
17.0
DIA.
(.669)
30
°
7.8
(.307)
1.2
(.047)
30
°
9.0
(.354)
13.0
(.511)
2.8
(.110)
11.5
(.452)
2
3
2.5
(.098)
1.0
(.039)
15.0
(.590)
5.0
(.196)
3.5
(.137)
1
5.0
(.196)
2
3
SHAFT SHOWN IN CCW POSITION
1.0
5.0 (.039)
(.196)
DIMENSIONS:
8.4
(.330)
1.2
(.047)
30
°
MM
(INCHES)
SHAFT SHOWN IN CCW POSITION
1
2
3
10.0
(.393)
3.5
(.137)
SHAFT SHOWN IN CCW POSITION
Specifications are subject to change without notice.
The device characteristics and parameters in this data sheet can and do vary in different applications and actual device performance may vary over time.
Users should verify actual device performance in their specific applications.
PDB18 Series - 17 mm Rotary Potentiometer
Product Dimensions
L
6.5
(.255)
6.5
(.255)
2.0
(.078)
L ± 0.5
L
6.5
(.255)
2.0
(.078)
2.0
(.078)
9.5
(.370)
A
16.5
DIA.
(.649)
2.0
(.078)
3.5
(.137)
13.2
(.519)
17.0
DIA.
(.669)
30
°
DIA.
6.0
(.236)
11.5
(.452)
F
DIA.
6.0 +0/-0.1
(.236 +0/-.004)
11.5
(.452)
A
DIA.
6.0
(.236)
1.0
(.039)
M7 x P0.75
18 TEETH
KNURL
M7 x P0.75
4.5
(.177)
2.0
(.078)
1.0
(.039)
M7 x P0.75
R2
R2
R1
3.5
(.138)
6.0
(.236)
17.0
DIA.
(.669)
18 TEETH
KNURL
R1
3.8
(.149)
5.0
(.196)
17.0
DIA.
(.669)
7.8
(.307)
1.2
(.047)
2.8
(.110)
7.8
(.307)
1.2
(.047)
16.5
(.649)
4.0
(.157)
1
2
3
3.5
(.137)
5.0
(.196)
5.0
(.196)
1
8.4
(.330)
30
°
± 10
°
1.2
(.047)
30
°
2.8
(.110)
23.0
(.906)
9.0
(.354)
2.8
(.110)
12.5
(.492)
1
2
3
SHAFT SHOWN IN CCW POSITION
2
3
1.0
(.039)
6 PLCS.
3.5
(.138)
5.0
(.196)
5.0
(.196)
5.0
(.196)
4.0
(.157)
2.5
(.098)
1.0
(.039)
5.0
(.196)
SHAFT SHOWN IN CCW POSITION
SHAFT SHOWN IN CCW POSITION
2
R1
1
R2
1’
2’
3’
3
SCHEMATIC
DIMENSIONS:
MM
(INCHES)
Specifications are subject to change without notice.
The device characteristics and parameters in this data sheet can and do vary in different applications and actual device performance may vary over time.
Users should verify actual device performance in their specific applications.
PDB18 Series - 17 mm Rotary Potentiometer
Product Dimensions
PDB182-D
Dual Gang
L
6.5
(.255)
2.0
(.078)
11.5
(.452)
6.5
(.255)
2.0
(.078)
11.5
(.452)
Shaft Styles
K Type
L
L
15
(.591)
6.5
(.256)
18
(.709)
6.5
(.256)
20
(.787)
11.5
(.453)
25
(.984)
14
(.551)
30
(1.181)
19
(.748)
A
A
DIA.
6.0
(.236)
A
DIA.
6.0
(.236)
L ± 0.5
(L ± .020)
6.5
(.256)
A
30 °
13.5
(.531)
2.0
(.078)
1.0
(.039)
11.5
(.453)
16.5
(.649)
R2
R1
M7 x P0.75
8.0
(.314)
18 TEETH
KNURL
R1
R2
2.0
(.078)
M7 x P0.75
1.0
(.039)
2.0
(.078)
18 TEETH
KNURL
14.0
(.551)
0.5
(.019)
4.5
(.177)
3.5
(.137)
18 TEETH
KNURL
6.0 +0/-0.1
DIA.
(.236 +0/-.004)
1.0
(.039)
SLOT SHOWN IN
CCW POSITION
P Type
L
20
(.787)
25
(.984)
6.0
DIA.
(.236)
17.0
DIA.
(.669)
8.4
(.330)
1.2
(.047)
30
°
8.4
(.330)
1.2
(.047)
17.0
DIA.
(.669)
30
(1.181)
30 °
2.8
(.110)
9.7
(.381)
2.8
(.110)
F Type
L
15
(.591)
7
(.276)
20
(.787)
12
(.472)
L ± 0.5
(L ± .020)
6.5
(.256)
25
(.984)
12
(.472)
30
(1.181)
12
(.472)
35
(1.378)
12
(.472)
1
2
3
1.0
6 PLCS.
(.039)
5.0
(.196)
1
2
3
F
5.0
(.196)
SHAFT SHOWN IN CCW POSITION
5.0
(.196)
5.0
(.196)
SHAFT SHOWN IN CCW POSITION
F
DIA.
4.5
(.177)
DIA.
6.0 +0/-0.1
(.236 +0/-.004)
DIMENSIONS:
MM
(INCHES)
Specifications are subject to change without notice.
The device characteristics and parameters in this data sheet can and do vary in different applications and actual device performance may vary over time.
Users should verify actual device performance in their specific applications.
PDB18 Series - 17 mm Rotary Potentiometer
Tapers
A Series Tapers
100
How To Order
Standard Resistance Table
Resistance
(Ohms)
1,000
2,000
5,000
10,000
20,000
50,000
100,000
200,000
500,000
1,000,000
Resistance
Code
102
202
502
103
203
503
104
204
504
105
PDB18 1 - K 4 25 K - 103 A1
Model
Number of Sections
• 1 = Single Section
• 2 = Dual Section
Terminal Configuration
(Pin Layout)
(see individual drawings)
• K = PC Pins vertical/
Down Facing
(12.5 mm)
• A = PC Pins vertical/
Down Facing
(18.0 mm)
• B = PC Pins vertical
Down Facing
(23.0 mm)
• E = Solder Lugs
Rear Facing
• P = PC Pins
Rear Facing
• D = PC Pins
Front Facing
Detent Option
• 2 = Center Detent
• 4 = No Detents
• 5 = 10 Detent / 11 Position
• 6 = 20 Detent / 21 Position
• 7 = 30 Detent / 31 Position
• 8 = 40 Detent / 41 Position
Standard Shaft Length
• 15 = 15 mm
• 18 = 18 mm
• 20 = 20 mm
• 25 = 25 mm
• 30 = 30 mm
90
80
Terminal 1-2 Output Voltage
X 100 (%)
Terminal 1-3 Input Voltage
70
60
50
40
30
(3
0A
A6
):
): A5
A
(25
: A4
A)
(20
A): A3
(15
A2
1
A):
(10
5A): A
(0
20
10
0
10
20
30
40
50
60
70
80
90
100
Rotational Travel (%)
B Series Tapers
100
): B
(2B
3
): B
2
(B
):
(1B
B
)
): B
90
80
Terminal 1-2 Output Voltage
X 100 (%)
Terminal 1-3 Input Voltage
70
60
50
40
30
20
10
(5B
(4B
): B
4
(3B
5
:B
1
0
10
20
30
40
50
60
70
80
90
100
Rotational Travel (%)
C Series Tapers
100
90
80
Terminal 1-2 Output Voltage
X 100 (%)
Terminal 1-3 Input Voltage
70
60
50
40
30
20
10
(3
(25 0C):
C
C
(20 ): C 6
5
(15 C):
C) C4
:C
3
(1
(05 0C)
:
C)
:C C
1
Shaft Style
• F = Metal Flatted Shaft
• K = Metal Knurled Type Shaft
18 Toothed Serration Type
• P = Metal Plain Shaft
Resistance Code (See Table)
Resistance Taper (See Taper Charts)
Taper Series followed by Curve Number
Other styles available.
0
10
20
30
40
50
60
70
80
90
100
Rotational Travel (%)
REV. 03/13
Specifications are subject to change without notice.
The device characteristics and parameters in this data sheet can and do vary in different applications and actual device performance may vary over time.
Users should verify actual device performance in their specific applications.
Could you please help me check if what I wrote is correct? Why does it feel like it is not written in? void SPI_send(unsigned char dat) { unsigned short i=0; for(i=0;i0;i--) { SPI_send(opcode.byte[i-1...
For those who have been working for more than one year, your learning of MCU is directly for the boss to increase your salary, but the premise is that you have absolute confidence that you can improve...
I know that global variables and static local variables are usually stored in the .DATA section. However, local variables do not exist in the PE file and cannot be found in the PE file (for example, i...
Send command string to 430 through PC and realize baud rate 115200 through receive interrupt. However, after each receive interrupt, the last byte of the last string is received. Solution: Attached co...
[i=s]This post was last edited by jameswangsynnex on 2015-3-3 19:51[/i] [size=14px] At the 2014 International Consumer Electronics Show (CES) and the World Mobile Communications Conference (WMC), vari...
[align=left][color=rgb(0, 0, 0)][font=宋体][backcolor=white][size=16px]In many applications, the amplifier is required to have a higher amplification factor and suitable input resistance and output resi...
A multi-point temperature control heating control system was designed using the SST89E564RC single-chip microcomputer and a new temperature measuring device. The heating system can be controlled in...[Details]
my country is a big country in agriculture, grain production and consumption. Grains are a necessary condition for our nation to survive and develop. The flour processing industry will exist forever w...[Details]
This paper designs a 16x16LED Chinese character display bar based on single-chip dynamic scanning control, briefly analyzes the principle of Chinese character display, and studies how the LED displ...[Details]
1 Embedded Systems
Embedded System refers to a collection of computer hardware and software with specific functions or purposes, which is divided into embedded software system and embe...[Details]
1. Introduction
AS-Interface bus technology is an intelligent network that uses a single cable to connect sensors and actuators to controllers, transmit data, and provide power. It can be used...[Details]
With the rapid development of information technology represented by computers, semi-physical simulation technology plays an important role in many military and civilian fields such as aerospace and co...[Details]
Any power transmission and distribution equipment and power-consuming devices cannot be pure resistive loads, so they must occupy a certain amount of reactive power. The existence of reactive curre...[Details]
At present, products in the field of monitoring generally focus on the field level, that is, the client/server (C/S) model is adopted, the purpose of which is to ensure the stability and reliability o...[Details]
Today's advanced electronic systems for the telecom and datacom markets rely heavily on high-performance, fine-line digital ICs (FPGAs, DSPs, and/or ASICs) to quickly and efficiently process time-s...[Details]
3. Driving circuit design
The power driver uses a field effect tube, which is a field-controlled device with a capacitance effect between the gate and source, so it has high requirements for t...[Details]
As the global leader in virtual instrument technology, NI provided customers with more than 6,000,000 virtual instrument measurement devices in 2004 alone. For 25 years, engineers have used virtual...[Details]
What is Power Monitoring Software
Power monitoring software is used in conjunction with an uninterruptible power supply (UPS) to improve its performance. When using an UPS, users can use this ...[Details]
1. Explanation of some common English abbreviations in ARM
MSB: most significant bit;
LSB: least significant bit;
AHB: Advanced High-Performance Bus;
VPB: VLSI peripheral bus th...[Details]
Tags: PMP Digital Signal Processing
Many observers and analysts agree that there will be only two hot technology topics in the field of electronic engineering and applications this year: o...[Details]
The high-pressure common rail system consists of a high-pressure fuel pump, a common rail, an injector, an electronic control unit (ECU) and various sensors. The low-pressure fuel pump inputs the fuel...[Details]