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| Intelligent Frequency Synthesizers Preliminary Data Sheet FEATURES: DESCRIPTION: PNP-1090-P22 The PNP-1090-P22 is a complete low noise frequency synthesizer, comprised of VCO, PLL, loop filter and data interface. The PNP family of RF signal sources is the world's first truly configurable frequency synthesizer module. PNP technology offers the designer the ability to configure all of the synthesizer's vital functions `on the fly' with simple strings of code that contain the commands of START, STOP, STEP, CHANNEL and REF. When new data is received, the PNP module optimizes its internal settings for best overall integrated phase noise, switching speed and spurious suppression, all automatically and in less than 100 S. Therefore, if the system requires 100 kHz steps in mode #1 and 1 MHz step size in mode #2, these smart synthesizers can make quick adjustments with amazing accuracy, speed and performance. Control of the internal registers is accomplished through a serial data interface. Many industry standard protocols are supported, including I2C, SPI, and MICROWIRE Serial Interfaces. The PNP-1090-P22 is powered from +3V and +12.5V supplies delivering +7 dBm of RF output power. 1500-2500 MHz Frequency Range Programmable Step Size Low Integrated Phase Noise Simplified Programming APPLICATIONS: Wireless Infrastructure Test Equipment Wireless LAN MICROWIRE is a trademark of National Semiconductor Corp. SPI is a trademark of Motorola, Inc. I2C is a trademark of Philips Corp. Package Drawing TOP 0.000 0.100 0.180 0.260 0.340 0.420 0.500 0.600 all dimensions in inches SIDE GND BOTTOM GND GND GND GND GND 0.600 0.600 UMC 0.460 0.380 0.300 0.220 0.140 0.460 0.380 GND REF V2 V1 RF DA0 DA1 DA2 LD N/C PNP-1090-P22 1500-2500 MHz 4205 0.300 0.220 0.140 0.000 0.000 0.100 0.180 0.260 0.340 0.420 0.500 0.600 0.000 GND GND GND GND GND 0.000 0.220 GND Universal Microwave Corporation, 2339 Destiny Way, Odessa, FL 33556 UMC Worldwide Customer Support Center: 4703 S. Lakeshore Drive, Suite 2, Tempe, AZ 85282 1.877.UMC.Xtreme / Fax 480.756.6026 PNP-1090-P22 Specifications Parameter RF OUT Characteristics Frequency Range Output Power Harmonics Noise Characteristics 1 kHz offset Noise 10 kHz offset Noise 100 kHz offset Noise 1 MHz offset Noise Spurious Signals STEP = 5000 kHz -70 -100 -100 -100 -130 1500 +5 +7 -20 V1 = +12.5V, V2 = +3.0V, REF =20.0 MHz, -40 to +85C Min Typ Max 2500 +9 -10 Units MHz dBm dBc -95 -95 -95 -125 dBc/Hz dBc/Hz dBc/Hz dBc/Hz -601 dBc dBc dBc REF Feed-through REF IN Characteristics REF Input Frequency REF Input Sensitivity 2 -80 -70 dBc 10 -5 20 0 250 +5 +/-100 MHz dBm A REF Input Current Logic Inputs VINH, Input High Voltage VINL, Input Low Voltage IINH, IINL, Input Current CIN, Input Capacitance Logic Outputs VOH, Output High Voltage VOL, Output Low Voltage IOH, IOL, Output Current Power Supplies Supply Voltage, V1 Supply Voltage, V2 Supply Current, I1 Supply Current, I2 NOTES: 1.35 0.6 +/- 1 10 Vdc Vdc A pF V2 - 0.4 0.4 500 Vdc Vdc A 12.3 2.7 12.5 3.0 50 25 12.7 3.3 60 35 Vdc Vdc mA mA 1. Max STEP spurious are degraded by an additional 10 dB at integer multiples of the Reference Frequency within a +/-100 kHz bandwidth 2. AC coupled. For DC coupled, 0 - V2 max. Pin Descriptions Mnemonic RF V1 V2 REF PNP-1090-P22 FUNCTION RF Output. This pin is AC coupled and should be connected to a non-reflective 50 ohm load. Supply Input. Decoupling capacitors to the ground plane should be placed as close as possible to this pin. Use an ultra low-noise regulator followed by an RC filter for best noise. Supply Input. Decoupling capacitors to the ground plane should be placed as close as possible to this pin. Use an ultra low-noise regulator followed by an RC filter for best noise. Reference Input. This is a CMOS input with a nominal threshold of V2/2 and a dc equivalent input resistance of 100K ohms. This input can be driven from a CMOS or TTL crystal clock oscillator or it can be ac coupled. Analog and RF Ground. Serial Interface. This input functions as CS in MICROWIRE/SPI Bus mode. This input functions as SDA in I2C BUS mode. Serial Interface. This input functions as DATA in MICROWIRE/SPI BUS mode. This input functions as SCL in I2C BUS mode. Serial Interface. This input functions as CLOCK in MICROWIRE/SPI BUS mode. This input must be connected to the DIGITAL GROUND in I2C BUS mode. Lock Detect. This output is active high and provides a continuous digital lock status. GND DA0 DA1 DA2 LD Absolute Maximum Ratings V1 to Ground V2 to Ground REF IN to Ground RF OUT to Ground Digital I/O to Ground -0.3 to +12.7 Vdc -0.3 to +3.6 Vdc -0.3 to (V2 + 0.3) Vdc +/- 25 Vdc -0.3 to (V2 + 0.3) Vdc Stress above those listed under "Absolute Maximum Ratings" may cause permanent damage to the device. This is a stress rating only. Operation of the device above the conditions listed in the operational sections of this specification is not implied. Operating Temperature Storage Temperature -40 to +85C -55 to +100C Ordering Guide Model PNP-1090-P22 PNP-1090A-P22 PNP-1090B-P22 PNP-1090C-P22 CAUTION! PNP-1090-P22 I2C Address Default Default + 1 Default + 2 Default + 3 Type Code P003 P003 P003 P003 ESD (electrostatic discharge) sensitive device. Electrostatic charges as high as 4000V readily accumulate on the human body and test equipment and can discharge without detection. Although the PNP family of synthesizers feature ESD protection circuitry, permanent damage may occur on devices subjected to highenergy electrostatic discharges. Therefore, proper ESD precautions are recommended to avoid performance degradation or loss of functionality Digital Interface PNP-1090-P22 Bus for control of the PNP synthesizer module, the DA2 line (see Package Drawing, Page 1) must be tied to Digital Ground. Additionally, the SDA and SCL lines must be pulled up to Dvdd using external resistors. Multiple PNP devices can reside on the same two wire Bus without the danger of corrupted data or data collisions. Device selection is accomplished by sending a slave address preceding each string of data. If only one PNP device will be used on the I2C Bus, then the factory pre-set base address will operate properly. If more than one PNP device will reside on the same I2C Bus, then modules with unique address locations must be used. This should be specified when ordering (see Ordering Guide on page 3). For additional information refer to the I2C Bus specification (copyright Philips Corp). Overview The PNP family of intelligent Frequency Synthesizers can be controlled through the use of a microprocessor interface or Bus. Several protocols are supported by PNP devices, although this specification will focus on SPI Bus, MICROWIRE-Interface and I2C Bus implementations. For SPI and MICROWIRE applications, PNP devices require a single 32 bit string of serial data to set frequency or to change its internal settings (Figure 1). I2C Bus utilizes some unique control bits and requires the addition of an ADDRESS byte, increasing the serial bit-stream for this protocol to 40 bits per command (Figure 2). The PNP device is programmed at the factory with presets for the START, STOP, STEP and REFERENCE registers. It is not necessary to re-load any of these registers if the factory values are acceptable. If the application requires different values than the factory pre-sets, then the PNP device must first be initialized by loading data into each of the affected registers. It is not necessary to re-load any registers that are already set properly for the application. START defines the lowest desired frequency of operation. STOP defines the highest desired frequency of operation. STEP is used to channelize the band and REFERENCE defines the frequency of the external reference. Once the PNP device is initialized, a fixed number channels are available. Loading the CHANNEL register sets the operating frequency of the PNP device. The formula for calculating the operating frequency is: START(Hz) + (CHANNEL * STEP(Hz)) = Frequency(Hz) I2C Implementation Transferring data to PNP synthesizers using I2C protocol varies significantly from that of SPI or MICROWIRE. PNP modules operate as slaves on the I2C Bus and do not write to the Bus. However, due to the fact that many devices might reside on the same Bus, addressing must be used to direct the flow of data traffic. So, within the bit stream sent to the PNP device, there is a block of data that comprises the ADDRESS byte. Within this address byte there are 7 bits that are used for the address location and the eighth is used as a read/write (R/W) bit. Since PNPs are slaves and will never write to the I2C Bus, this bit will always be set to 0 (logic low). Each data string is sent using a series of five single byte blocks. I2C protocol requires that each string of data begin with a master generated START (S). Each byte within the string must end with a slave generated ACKNOWLEDGE (A). Finally, after all five bytes are generated, the transfer is concluded with a master generated STOP (P). The master generated STOP must be executed following each data string for the values to be accepted by the PNP device. If this condition is not satisfied and a new master generated START occurs, the PNP device will purge the previous data without updating the desired attribute. REPEATED START (Sr) operation is not allowed when sending data to the PNP device. The flow of data bytes to the PNP device is outlined in Figure 2. Since FUNCTION SELECT and MULTIPLIER are 4 bits each, these blocks of data are combined into one byte. Additionally, since the FREQUENCY/ CHANNEL block of data is 24 bits long, it must be fragmented into three individual bytes as shown. MICROWIRE Interface and SPI Bus MICROWIRE-Interface and SPI Bus are extremely similar protocols (Figures 6 & 7). DATA bits are clocked into the PNP device on the rising edge of the CLOCK input. CS, or chip select not, must be in a low state for the incoming DATA bits to be accepted. After all 32 bits have been clocked in, the CS line must transition high for the DATA string to be latched. After the string is latched, the information in the FUNCTION block (Figure 5) determines where the data will be routed internally. I2C Bus The I2C Bus is a high-speed method of communicating over a two wire interface. PNP modules are configured as "slaves" or receive-only devices and can only listen for commands from the "master" which is typically a microprocessor. The I2C two wire Bus consists of SDA (serial data) and SCL (serial clock) lines. In order to use the I2C Attribute Definitions PNP-1090-P22 FIGURE 2: FREQUENCY/CHANNEL (DB0 - DB23) This is a 24 bit string used to set the synthesizer's START Frequency, STOP Frequency, STEP Frequency, REF Frequency or CHANNEL number. DB23 DBn FC23 0 0 0 0 0 FCn 0 0 0 0 0 DB3 FC3 0 0 0 0 1 DB2 FC2 0 0 0 0 1 DB1 FC1 0 0 1 1 1 DB0 FC0 0 1 0 1 1 0 1 2 3 15 FREQUENCY/CHANNEL FIGURE 3: MULTIPLIER (DB24 - DB27) The data in FREQUENCY/CHANNEL (DB0-DB23) is multiplied by 10n where the value of n is determined by the contents of MULTIPLIER (DB24-DB27) as shown below. DB27 DB26 DB25 DB24 M3 0 0 0 0 n M2 0 0 0 0 n M1 0 0 1 1 n M0 0 1 0 1 n 100 X contents of DB0-DB23 101 X contents of DB0-DB23 102 X contents of DB0-DB23 103 X contents of DB0-DB23 10n X contents of DB0-DB23 MULTIPLIER FIGURE 4: FUNCTION SELECT (DB28 - DB31). After the data in FREQUENCY/CHANNEL (DB0 - DB23) is multiplied by 10n where the value of n is determined by the contents of MULTIPLIER (Figure 3), it is then routed internally to the START, STOP, STEP, REF or CHANNEL registers based on the contents of FUNCTION SELECT as shown below. DB31 FS3 0 0 0 0 0 DB30 FS2 0 0 0 0 1 DB29 FS1 0 0 1 1 0 DB28 FS0 0 1 0 1 0 FUNCTION SELECT CHANNEL. Routes data from DB0-DB23 to the CHANNEL REGISTER. START. Routes data from DB0-DB23 to the START REGISTER. STOP. Routes data from DB0-DB23 to the STOP REGISTER. STEP. Routes data from DB0-DB23 to the STEP REGISTER. REFERENCE. Routes data from DB0-DB23 to the REFERENCE REGISTER All FUNCTION SELECT values not shown above are reserved for factory use. Data Structures PNP-1090-P22 Figure 1: SPI Bus/Microwire-Interface Data Structure FUNCTION SELECT (4 BITS) DB31 FS3 DB30 FS2 DB29 FS1 DB28 FS0 MULTIPLIER (4 BITS) DB27 M3 DB26 M2 DB25 M1 DB24 M0 DB23 FC23 FREQUENCY/CHANNEL (24 BITS) DB22 FC22 DBn FCn DB2 FC2 DB1 FC1 DB0 FC0 Figure 2: I2C Bus Data Structure START A6 S 1 1 n n n n n 0 A5 A4 Slave ADDRESS A3 A2 A1 A0 R/W A FS3 n FUNCTION SELECT/MULTIPLIER FS2 n FS1 n FS0 n M3 n M2 n M1 n M0 n A Master START PNP ADDRESS (See Table below) Read/Write FUNCTION SELECT MULTIPLIER Acknowledge Acknowledge FREQUENCY/CHANNEL FC FC FC FC FC FC FC FC 23 22 21 20 19 18 17 16 n n n n n n n n FC FC FC FC FC FC FC FC 15 14 13 12 11 10 9 8 n n n n n n n n FC FC FC FC FC FC FC FC A 7 6 5 4 3 2 1 0 n n n n n n n n n STOP A A P FREQUENCY/CHANNEL BYTE FREQUENCY/CHANNEL BYTE FREQUENCY/CHANNEL BYTE Acknowledge Acknowledge Acknowledge Master STOP MODEL NUMBER PNP-1090-P22 PNP-1090A-P22 PNP-1090B-P22 PNP-1090C-P22 PNP-1090x-P22 I2C ADDRESS A6 1 1 1 1 1 A5 1 1 1 1 1 A4 0 0 0 0 n A3 0 0 0 0 n A2 0 0 0 0 n A1 0 0 1 1 n A0 0 1 0 1 n SPI Bus/MICROWIRE-Interface Timing Characteristics Figure 6: MICROWIRE Interface Timing Diagram ~ DB31 DB30 t1 t2 DB2 DB1 DB0 DATA CLOCK ~ ~ t3 t4 CS ~ t5 Parameter Limit at tmin to tmax Units t1 t2 t3 t4 t5 t6 t7 100 100 250 250 100 200 200 t6 Test Conditions/Comments ns min DATA to CLOCK setup time ns min DATA to CLOCK hold time ns min CLOCK high time ns min CLOCK low time ns min CLOCK to CS setup time ns min CS pulse width (applies to MICROWIRE Interface only) ns min CS to CLOCK setup time (applies to SPI BUS only) Figure 7: SPI BUS Timing Diagram DB31 DB30 t1 t2 ~ DB2 DB1 DB0 DATA CLOCK t7 ~ ~ t3 t4 CS ~ t5 Package Drawing TOP 0.000 0.100 0.180 0.260 0.340 0.420 0.500 0.600 all dimensions in inches SIDE GND BOTTOM GND GND GND GND GND 0.600 0.600 UMC 0.460 0.380 0.300 0.220 0.140 0.460 0.380 GND REF V2 V1 RF DA0 DA1 DA2 LD N/C PNP-1090-P22 1500-2500 MHz 4205 0.300 0.220 0.140 0.000 0.000 0.100 0.180 0.260 0.340 0.420 0.500 0.600 0.000 GND GND GND GND GND 0.000 0.220 GND Recommended Layout a c b all dimensions in inches Recommended Layout Dimensions (min) a 0.043 0.052 0.475 0.535 (typ) 0.046 0.055 0.480 0.540 0.080 (max) 0.049 0.058 0.485 0.545 c a b c d b d e e Tape and Reel Specifications all dimensions in mm Tape and Reel Dimensions Ao Bo P Po Cw D 15.5 15.5 16.0 4.0 24.0 1.5 E F c d Tw Ko 1.75 10.2 0.06 0.30 21.2 6.6 |
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