米6体育平台手机版

ZHCSHV3A March 2018 – November 2018 LMX8410L

PRODUCTION DATA.

封装选项

机械数据 (封装 | 引脚)

RGZ|48
- MPQF123F

散热焊盘机械数据 (封装 | 引脚)

RGZ|48
- QFND131R

订购信息

6.5 Electrical Characteristics

Measurements are done at 25 degree C. Parameters are measured at IF = 65MHz with high side injection, unless otherwise noted. Measurements are done with external VCM = 1.7V.

PARAMETER		TEST CONDITIONS	MIN	TYP	MAX	UNIT
POWER SUPPLY
V_CC	Power supply voltage, 3.3-V rail		3.15	3.3	3.45	V
I_CC	Power supply current, 3.3-V rail	Internal LO		650		mA
I_CC	Power supply current, 3.3-V rail	External LO		330		mA
V_CC5	Power supply voltage, 5-V rail		4.75	5	5.25	V
I_CC5	Power supply current both channels I and Q, 5-V rail			130		mA
FREQUENCY RANGES
F_RF	RF port frequency range		4000		10000	MHz
F_LO	LO port frequency range		4000		10000	MHz
F_IF	IF port frequency range (3dB bandwidth)		DC		1350	MHz
DYNAMIC PERFORMANCE
NF	Noise figure	RF = 4 GHz		15		dB
		RF = 5 GHz		15
		RF = 6 GHz		16
		RF = 7 GHz		17
		RF = 8 GHz		18
		RF = 9 GHz		19
		RF = 10 GHz		19
G	Voltage gain⁽¹⁾	RF = 4 GHz		11		dB
		RF = 5 GHz		11
		RF = 6 GHz		10.5
		RF = 7 GHz		9.5
		RF = 8 GHz		9
		RF = 9 GHz		8
		RF = 10 GHz		7
IIP3	Input intercept point, 3rd order⁽²⁾	RF = 4 GHz		28		dBm
		RF = 5 GHz		28
		RF = 6 GHz		26.5
		RF = 7 GHz		27
		RF = 8 GHz		26.5
		RF = 9 GHz		27
		RF = 10 GHz		27
IIP2	Input intercept point, 2nd order (uncalibrated)	RF = 4 GHz		48		dBm
		RF = 5 GHz		48
		RF = 6 GHz		46
		RF = 7 GHz		44
		RF = 8 GHz		45
		RF = 9 GHz		44
		RF = 10 GHz		42
SP_2x2	2×2 spur [RF input power at –10 dBm]	RF = 4 GHz		-58		dBc
		RF = 5 GHz		-58
		RF = 6 GHz		-58
		RF = 7 GHz		-54
		RF = 8 GHz		-52
		RF = 9 GHz		-50
		RF = 10 GHz		-48
SP_3x3	3×3 spur [RF input power at –10 dBm]	RF = 4 GHz		-75		dBc
		RF = 5 GHz		-75
		RF = 6 GHz		-75
		RF = 7 GHz		-75
		RF = 8 GHz		-75
		RF = 9 GHz		-75
		RF = 10 GHz		-75
O_P1dB	Output 1-dB compression point	RF = 4 GHz		12		dBm
		RF = 5 GHz		12
		RF = 6 GHz		12
		RF = 7 GHz		12
		RF = 8 GHz		12
		RF = 9 GHz		12
		RF = 10 GHz		12
IRR	Image rejection ratio [calibrated]	RF = 4 GHz		43		dB
		RF = 5 GHz		43
		RF = 6 GHz		44
		RF = 7 GHz		44
		RF = 8 GHz		43
		RF = 9 GHz		42
		RF = 10 GHz		36
ISO_RFxIF	RF to IF isolation	RF = 4 GHz		40		dB
		RF = 5 GHz		40
		RF = 6 GHz		40
		RF = 7 GHz		40
		RF = 8 GHz		40
		RF = 9 GHz		40
		RF = 10 GHz		40
LEAK_RFxIF	LO to IF leakage	LO = 4 GHz		-35		dBm
		LO = 5 GHz		-35
		LO = 6 GHz		-35
		LO = 7 GHz		-35
		LO = 8 GHz		-35
		LO = 9 GHz		-35
		LO = 10 GHz		-35
LEAK_LOxRF	LO to RF leakage (internal Lo mode)	LO = 4 GHz		-60		dBm
		LO = 5 GHz		-60
		LO = 6 GHz		-52
		LO = 7 GHz		-50
		LO = 8 GHz		-50
		LO = 9 GHz		-45
		LO = 10 GHz		–40
PERFORMANCE TUNING
G_{IQ_CAL}	I/Q gain calibration range	IMRR_GCAL register full range		±0.5		dB
G_{IQ_STEP}	I/Q gain calibration step size			0.05		dB
PH_{IQ_CAL}	I/Q phase calibration range	IMRR_PCAL register full range		±20		Deg
PH_{IQ_STEP}	I/Q phase calibration step size	Step size can be made reduced to 0.25 deg in fine accuracy mode		0.45		Deg
V_DCOC	calibrated differential DC offset			+/- 2		mV
PORTS
S11_RF	RF return loss	RF = 4 GHz		8		dB
		RF = 5 GHz		19		dB
		RF = 6 GHz		21		dB
		RF = 7 GHz		16		dB
		RF = 8 GHz		10		dB
		RF = 9 GHz		9		dB
		RF = 10 GHz		9		dB
S11_LO	LO return loss (differential measurement)	RF = 4 GHz		15		dB
		RF = 5 GHz		15		dB
		RF = 6 GHz		20		dB
		RF = 7 GHz		17		dB
		RF = 8 GHz		18		dB
		RF = 9 GHz		17		dB
		RF = 10 GHz		12		dB
P_{LO_IN}	External LO input power	8 GHz RF_IN		6		dBm
P_{LO_OUT}	External LO output power⁽³⁾	<7 GHz RFout		2		dBm
P_{LO_OUT}	External LO output power⁽³⁾	<10 GHz RFout		-1		dBm
V_{IF_RANGE}	IF output voltage swing (differential)			2		VPP
V_CM	IF common mode voltage, internal or external source		1.2	1.7	2	V
Pin_RF	RF input power				5	dBm
LO SYNTHESIZER INPUT SIGNAL PATH
F_OSCIN	Reference oscillator port frequency range	OSC_2X = 0	5		1400	MHz
F_OSCIN	Reference oscillator port frequency range	OSC_2X = 1	5		200	MHz
V_OSCIN	Reference input voltage	AC-coupled required⁽⁴⁾	0.2		2	Vpp
F_MULT	Multiplier frequency (when multiplier enabled)	Input range	30		70	MHz
F_MULT	Multiplier frequency (when multiplier enabled)	Output range	180		250	MHz
LO SYNTHESIZER PHASE DETECTOR AND CHARGE PUMP
F_PD	Phase detector frequency	Integer Mode (FRAC_ORDER = 0)	0.125		400	MHz
		Fractional Mode (FRAC_ORDER = 1,2,3)	5		300
		Fractional Mode (FRAC_ORDER = 4)	5		240
I_CPOUT	Charge pump leakage current	CPG = 0		15		nA
	Effective charge pump current (sum of up and down currents)	CPG = 4		3		mA
		CPG = 1		6
		CPG = 5		9
		CPG = 3		12
		CPG = 7		15
PN_1/F	Normalized PLL flicker noise	F_PD = 100 MHz, F_VCO = 12 GHz⁽⁵⁾		–129		dBc/Hz
PN_FLAT	Normalized PLL thermal noise floor	F_PD = 100 MHz, F_VCO = 12 GHz⁽⁵⁾		–236		dBc/Hz
LO SYNTHESIZER VCO
PNvco	Open loop VCO phase noise	8 GHz VCO, 10 kHz offset		–80		dBc/Hz
		8 GHz VCO, 100 kHz offset		–107
		8 GHz VCO, 1 MHz offset		–128
		8 GHz VCO, 10 MHz offset		–148
		8 GHz VCO, 90 MHz offset		–157
		9.2 GHz VCO, 10 kHz offset		–79
		9.2 GHz VCO, 100 kHz offset		–105
		9.2 GHz VCO, 1 MHz offset		–127
		9.2 GHz VCO, 10 MHz offset		–147
		9.2 GHz VCO, 90 MHz offset		–157
		10.3 GHz VCO, 10 kHz offset		–77
		10.3 GHz VCO, 100 kHz offset		–104
		10.3 GHz VCO, 1 MHz offset		–126
		10.3 GHz VCO, 10 MHz offset		–147
		10.3 GHz VCO, 90 MHz offset		–157
		11.3 GHz VCO, 10 kHz offset		–76
		11.3 GHz VCO, 100 kHz offset		–103
		11.3 GHz VCO, 1 MHz offset		–125
		11.3 GHz VCO, 10 MHz offset		–145
		11.3 GHz VCO, 90 MHz offset		–158
		12.5 GHz VCO, 10 kHz offset		–74
		12.5 GHz VCO, 100 kHz offset		–100
		12.5 GHz VCO, 1 MHz offset		–123
		12.5 GHz VCO, 10 MHz offset		–144
		12.5 GHz VCO, 90 MHz offset		–157
		13.3 GHz VCO, 10 kHz offset		–73
		13.3 GHz VCO, 100 kHz offset		–100
		13.3 GHz VCO, 1 MHz offset		–122
		13.3 GHz VCO, 10 MHz offset		–143
		13.3 GHz VCO, 90 MHz offset		–155
		14.5 GHz VCO, 10 kHz offset		–73
		14.5 GHz VCO, 100 kHz offset		–99
		14.5 GHz VCO, 1 MHz offset		–121
		14.5 GHz VCO, 10 MHz offset		–143
		14.5 GHz VCO, 90 MHz offset		–152
t_{VCO_CAL}	VCO calibration speed, switch across the entire frequency band, F_OSC = 200 MHz, F_PD = 100 MHz⁽⁶⁾	No assist		50		µs
t_{VCO_CAL}		Close frequency		20		µs
K_VCO	VCO gain	8 GHz		89		MHz/V
		9.2 GHz		93
		10.3 GHz		110
		11.3 GHz		124
		12.5 GHz		189
		13.3 GHz		182
		14.5 GHz		205
\|ΔT_CL\|	Allowable temperature drift when VCO is not re-calibrated			125		°C
H2	VCO second harmonic	FVCO = 8 GHz, divider disabled		-30		dBc
H3	VCO third harmonic	FVCO = 8 GHz, divider disabled		-40		dBc
SYNC PIN AND PHASE ALIGNMENT
F_{OSCIN_SYNC}	Maximum usable OSCIN frequency with SYNC pin	Category 3 (int LO mode)	0		100	MHz
F_{OSCIN_SYNC}	Maximum usable OSCIN frequency with SYNC pin	Category 1 or 2	0		1400	MHz
DIGITAL INTERFACE (SCK, SDI, CSB, MUXOUT, SYNC, CE)
V_IH	High level input voltage		1.4		VCC	V
V_IL	Low level input voltage		0		0.4	V
I_IH	High level input current		-50		50	µA
I_IL	Low level input current		-50		50	µA
V_OH	High level output voltage	I_L = –5 mA	VCC – 0.55			V
V_OL	High level output current	I_L = 5 mA			0.55	V

(1) For measurements that require RF input, RF input power is -10dBm unless otherwise specified.

(2) For two-tone measurements, tone separation is 17MHz.

(3) Output power, spurs, and harmonics can vary based on board layout and components.

(4) For lower VCO frequencies, the N divider minimum value can limit the phase detector frequency.

(5) The PLL noise contribution is measured using a clean reference and a wide loop bandwidth and is composed into flicker and flat components. PLL_FLAT = PLL_FOM + 20log(F_VCO / F_PD) + 10log(F_PD / 1Hz). PLL_FLICKER (offset) = PLL_{FLICKER_NORM} + 20log(F_VCO / 1GHz) - 10log(offset frequency / 10kHz). Once these two components are found, the total PLL noise can be calculated as PLL_NOISE = 10log(10^{PLLFLAT / 10} + 10^{PLLFLICKER / 10}).

(6) See Application and Implementation for more details on the different VCO calibration modes.