1801 1.0

UMC L90GOD 90nm Clock Generator PLL - 125MHz-625MHz The Clock Generator PLL is designed to multiply an input clock by an integer between 1 and 4096. It does not provide any deskew functionality. It cont...

1802 1.0

UMC L90GOD 90nm Clock Generator PLL - 250MHz-1250MHz The Clock Generator PLL is designed to multiply an input clock by an integer between 1 and 4096. It does not provide any deskew functionality. It cont...

1803 1.0

UMC L90GOD 90nm Clock Generator PLL - 500MHz-2500MHz The Clock Generator PLL is designed to multiply an input clock by an integer between 1 and 4096. It does not provide any deskew functionality. It cont...

1804 1.0

UMC L90GOD 90nm DDR DLL - 144MHz-720MHz The DDR DLL uses a reference clock to establish a time base in order to delay arbitrary (nonperiodic) strobe signals by precise fractions of the clock...

1805 1.0

UMC L90GOD 90nm DDR DLL - 192MHz-960MHz The DDR DLL uses a reference clock to establish a time base in order to delay arbitrary (nonperiodic) strobe signals by precise fractions of the clock...

1806 1.0

UMC L90GOD 90nm Deskew PLL - 125MHz-625MHz The Deskew PLL is designed to eliminate the skew between the output of a clock distribution tree and a clock reference. The PLL can also multiply the ...

1807 1.0

UMC L90GOD 90nm Deskew PLL - 250MHz-1250MHz The Deskew PLL is designed to eliminate the skew between the output of a clock distribution tree and a clock reference. The PLL can also multiply the ...

1808 1.0

UMC L90GOD 90nm Deskew PLL - 500MHz-2500MHz The Deskew PLL is designed to eliminate the skew between the output of a clock distribution tree and a clock reference. The PLL can also multiply the ...

1809 1.0

UMC L90GOD 90nm Spread Spectrum PLL - 125MHz-625MHz The Spread Spectrum PLL is designed to multiply an input clock by a fixed-point number between 92 and 184 with frequency spreading capability suitable...

1810 1.0

UMC L90GOD 90nm Spread Spectrum PLL - 250MHz-1250MHz The Spread Spectrum PLL is designed to multiply an input clock by a fixed-point number between 92 and 184 with frequency spreading capability suitable...

1811 1.0

UMC L90GOD 90nm Spread Spectrum PLL - 500MHz-2500MHz The Spread Spectrum PLL is designed to multiply an input clock by a fixed-point number between 92 and 184 with frequency spreading capability suitable...

1812 1.0

UMC L90SP 90nm Clock Generator PLL - 120MHz-600MHz The Clock Generator PLL is designed to multiply an input clock by an integer between 1 and 4096. It does not provide any deskew functionality. It cont...

1813 1.0

UMC L90SP 90nm Clock Generator PLL - 240MHz-1200MHz The Clock Generator PLL is designed to multiply an input clock by an integer between 1 and 4096. It does not provide any deskew functionality. It cont...

1814 1.0

UMC L90SP 90nm Clock Generator PLL - 60MHz-300MHz The Clock Generator PLL is designed to multiply an input clock by an integer between 1 and 4096. It does not provide any deskew functionality. It cont...

1815 1.0

UMC L90SP 90nm DDR DLL - 60MHz-300MHz The DDR DLL uses a reference clock to establish a time base in order to delay arbitrary (nonperiodic) strobe signals by precise fractions of the clock...

1816 1.0

UMC L90SP 90nm DDR DLL - 80MHz-400MHz The DDR DLL uses a reference clock to establish a time base in order to delay arbitrary (nonperiodic) strobe signals by precise fractions of the clock...

1817 1.0

UMC L90SP 90nm Deskew PLL - 120MHz-600MHz The Deskew PLL is designed to eliminate the skew between the output of a clock distribution tree and a clock reference. The PLL can also multiply the ...

1818 1.0

UMC L90SP 90nm Deskew PLL - 240MHz-1200MHz The Deskew PLL is designed to eliminate the skew between the output of a clock distribution tree and a clock reference. The PLL can also multiply the ...

1819 1.0

UMC L90SP 90nm Deskew PLL - 60MHz-300MHz The Deskew PLL is designed to eliminate the skew between the output of a clock distribution tree and a clock reference. The PLL can also multiply the ...

1820 1.0

UMC L90SP 90nm Spread Spectrum PLL - 120MHz-600MHz The Spread Spectrum PLL is designed to multiply an input clock by a fixed-point number between 92 and 184 with frequency spreading capability suitable...

1821 1.0

UMC L90SP 90nm Spread Spectrum PLL - 240MHz-1200MHz The Spread Spectrum PLL is designed to multiply an input clock by a fixed-point number between 92 and 184 with frequency spreading capability suitable...

1822 1.0

UMC L90SP 90nm Spread Spectrum PLL - 60MHz-300MHz The Spread Spectrum PLL is designed to multiply an input clock by a fixed-point number between 92 and 184 with frequency spreading capability suitable...

1823 1.0

CMOS Low Power Programmable Frequency Divider(50-2400 MHz) ...

1824 1.0

CMOS Low Power Programmable Frequency Divider(50-2400 MHz) IP Fabricated ...

1825 1.0

DNC IR SSB Mixer used in transceiver applications RFDN03C (DNC Mixer) is IR SSB Mixer used in transceiver application. The process used to design DNC Mixer is 0.1um GaAs pHEMT. This Mixer employs two ...

1826 1.0

InGaP HBT low power buffer amplifier The GEDA02 is 20 GHz to 40 GHz low power buffer amplifier. The amplifier is designed using 2 ìm InGaP HBT process for high frequency applications. ...

1827 1.0

Poly Phase CMOS Programmable Frequency Divider (50-2400 MHz) ...

1828 1.0

Low Dropout Voltage regulator ...

1829 1.0

Low noise amplifier for 28-40 Ghz frequencies for 5G, satcom and other applications RFLN05C is a four stage low noise amplifier. It provide high gain over wide bandwidth,low Noise Figure, high isolation, stability. The LNA is designed...

1830 1.0

Low noise amplifier with lange couplers for 20-40 GHz frequencies for 5G , satcom and other applications RFLN03C is a three stage low noise amplifier with Lange Coupler at input & output side for perfect input and output matching to 50 ohms. It provides h...

1831 1.0

Low noise amplifier with lange couplers for 24-42 GHz frequencies for 5G , satcom and other applications RFLN06C is a four stage low noise amplifier. It provides high gain over wide bandwidth, low noise figure, high isolation, stability. The LNA is design...

1832 1.0

LOW POWER VOLTAGE REF ...

1833 1.0

Downconverter IR SSB Mixer used in receives RFDN02C (DNC Mixer) is IR SSB Mixer used in receive application. The process used to design DNC Mixer is 0.1um GaAs pHEMT. This Mixer employs two resi...

1834 1.0

Up convert LO reject Mixer used in RF transceiver applications RFUD01C (UPC Mixer) is LO reject Mixer used in RF transceiver applications. The process used to design UPC Mixer is 0.1um GaAs pHEMT. This is singly b...

1835 1.0

Driver Amplifier 8-16GHz ...

1836 1.0

Driver Amplifier operating from 1-16 GHz and can be used in wide band application or to drive the high-power amplifier RFDA07C Driver Amplifier operates from 1 - 16 GHz and can be used in wide band application or to drive the high-power amplifier. The amplifier provide...

1837 1.0

Driver Amplifier operating from 10 - 24 GHz and can be used in wide band application or to drive the high-power amplifier RFDA02C Driver Amplifier operates from 10 - 24 GHz and can be used in wide band application or to drive the high-power amplifier. The amplifier provid...

1838 1.0

Driver Amplifier operating from 24-30 GHz and can be used in wide band application or to drive the high-power amplifier RFDA06C Driver Amplifier operates from 24 – 30 GHz and can be used in Ka band application or to drive the high-power amplifier. The amplifier provides...

1839 1.0

Driver Amplifier operating from 35 - 39 GHz and can be used in Ka band applications or to drive the high power amplifier RFDA13C Driver Amplifier operates from 35 - 39 GHz and can be used in Ka band applications or to drive the high power amplifier. The amplifier provide...

1840 1.0

Driver Amplifier operating from 35 - 46 GHz and can be used in Ka / V band applications or to drive the high-power amplifier RFDA12C Driver Amplifier operates from 35 - 46 GHz and can be used in Ka / V band applications or to drive the high-power amplifier. The amplifier pro...

1841 1.0

Driver Amplifier operating from 37 - 40 GHz and can be used in Ka band applications or to drive the high-power amplifier. RFDA11C Driver Amplifier operates from 37 - 40 GHz and can be used in Ka band applications or to drive the high-power amplifier. The amplifier provide...

1842 1.0

Programmable Special IO in SMIC0.13um AR750S13 is a programmable special IO cell supporting various JEDEG standards, such as LVDS, LVTTL, LVCMOS-33/25/18/15, SSTL_3/2/18. The IP is extreme...

1843 1.0

Front End Module operating from 2 – 7 GHz and can be used in S / C band for Wi-Fi 6 & SATCOM applications. RFFEM02C Front End Module operates from 2 – 7 GHz and can be used in S / C for Wi-Fi 6 & SATCOM applications. The input and output are matched to 50 o...

1844 1.0

Front End Module operating from 24 – 30 GHz and can be used in low power Ka band applications RFFEM01C Front End Module operates from 24 – 30 GHz and can be used in low power Ka band application. The input and output are matched to 50 ohms with...

1845 1.0

USB 2.0 Device Controller The USB 2.0 Device IP core is Arasan’s latest development that enables designers in the PC, mobile, consumer and communication markets to bring signif...

1846 1.0

USB 2.0 EHCI Host Controller IP The Arasan USB 2.0 Host IP is an USB 2.0 specification compliant host IP core with an optional AHB, PCI, or custom host interface. The USB 2.0 Host IP...

1847 1.0

USB 2.0 Hub Controller The Arasan USB 2.0 Hub IP core is an USB 2.0 specification compliant hub core that supports 480 Mbit/s in High Speed (HS) mode, 12 Mbit/s in Full Spe...

1848 1.0

USB 2.0 On-The-Go Controller The Arasan USB 2.0 OTG IP Core is compliant with the OTG Supplement Rev. 1.0a. The USB 2.0 OTG core supports both Host Controller, Device Controller a...

1849 1.0

USB 2.0 PHY For On-The-Go Controller The Arasan ACS-AIP-USB2 USB 2.0 PHY IP core is a Transceiver compliant with the USB 2.0 Transceiver Macrocell Interface Plus (UTMI+) level 3 specific...

1850 1.0

USB 2.0 PHY I/O in GF40nm The Arasan Superspeed Inter-chip Controller (USB 3.0 SSIC Adapter) uses Arasan’s MIPI-M-PHY (Type-1) v. 3.0 to implement the SSIC adaptation to the US...