All Celeron Models

Celeron E1000 Series (Dual-Core)

Since its launch, in April, 1998, Intel Celeron processor has been going through some changes. The name Celeron is used by Intel to denominate its low cost line of processors. In fact, Celeron is an economic version of Intel top processors. In other words, Celeron is a simplified version of Pentium II, Pentium III, Pentium 4 or Core 2 Duo, with some of its features being reduced or removed. Celeron models already launched and top processors in which they are based on are listed below:

Model	Codename	Based on	Cores	L1 Cache
Celeron SEPP	Convington	Pentium IIDeschutes core	1	32 KB
Celeron A	Mendocino	Pentium II Deschutes core	1	32 KB
Celeron PPGA	Mendocino	Pentium II Deschutes core	1	32 KB
Celeron Coppermine	Coppermine	Pentium III Coppermine core	1	32 KB
Celeron Tualatin	Tualatin	Pentium IIITualatin core	1	32 KB
Celeron Willamette	Willamette	Pentium 4 Willamette core	1	8 KB
Celeron Northwood	Northwood	Pentium 4Northwood core	1	8 KB
Celeron D	Prescott	Pentium 4 Prescott core	1	16 KB
Celeron 400 Series	Conroe-L	Core 2 Duo	1	64 KB
Celeron E1000 Series	Allendale	Core 2 Duo	2	64 KB
Celeron E3000 Series	Penryn	Core 2 Duo	2	64 KB

Model	L2 Cache	Technology	External Bus	Socket
Celeron SEPP	–	0.25 µm	66 MHz	Slot 1
Celeron A	128 KB	0.25 µm	66 MHz	Slot 1
Celeron PPGA	128 KB	0.25 µm or 0.18 µm	66 MHz	Socket 370
Celeron Coppermine	128 KB	0.18 µm	66MHz or 100MHz	Socket 370
Celeron Tualatin	256 KB	0.13 µm	100 MHz	Socket 370
Celeron Willamette	128 KB	0.18 µm	400 MHz	Socket 478
Celeron Northwood	128 KB	0.13 µm	400 MHz	Socket 478
Celeron D	256 KB	90 nm or 65 nm	533 MHz	Socket 478 or Socket LGA775
Celeron 400 Series	512 KB	65 nm	800 MHz	Socket LGA775
Celeron E1000 Series	512 KB	65 nm	800 MHz	Socket LGA775
Celeron E3000 Series	1 MB	45 nm	800 MHz	Socket LGA775

Celeron distinguishes itself from Pentium II, Pentium III, Pentium 4 or Core 2 Duo basically in three aspects:

• L2 memory cache size
• Internal clock
• External bus clock

Because of these differences Celeron is cheaper and of low-performance, compared to the Pentium II, Pentium III, Pentium 4 and Core 2 Duo processors, thus it fits well to domestic users market or to those who don’t need great power in the computer.

The first Celeron processor to be launched was an economic version of Pentium II Deschutes core. It had 32KB of L1 cache, no L2 cache, MMX technology, worked externally with 66 MHz, and was found in a printed circuit board called SEPP (Single Edge Processor Package), which was connected to the slot 1 motherboard, and was available at speeds of 266 MHz and 300 MHz.

The motherboard used by this Celeron version was the same used by the Pentium II and first Pentium III processors.

Figure 1: Celeron processor with SEPP package.

Main features of Celeron SEPP were:

• Based on Pentium II with Deschutes core
• Manufacturing process: 0.25 μm
• L1 cache: 32 KB total, 16 KB for instructions and 16 KB for data
• L2 cache: not available (0 KB)
• External clock rate: 66 MHz
• Packaging: SEPP
• Socket: Slot 1

Available models of SEPP Celeron are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

Model	Internal Clock	Voltage	TDP
SL2YN	266 MHz	2 V	16.59 W
SL2QG	266 MHz	2 V	16.59 W
SL2SY	266 MHz	2 V	16.59 W
SL2TR	266 MHz	2 V	16.59 W
SL2X8	300 MHz	2 V	18.48 W
SL2Y2	300 MHz	2 V	18.48 W
SL27Z	300 MHz	2 V	18.48 W
SL2YP	300 MHz	2 V	18.48 W
SL2Z7	300 MHz	2 V	18.48 W

The original Celeron was terrible. Because of no L2 cache present, its performance was less than tolerable. Thus, Intel decided to launch Celeron A, which was different from the original Celeron on its L2 cache with 128KB running at the processor speed. Actually, Celeron A was the first processor for PCs to have a L2 cache integrated in the processor.

The first version of Celeron A worked with a clock of 300 MHz. In order to differentiate from the original Celeron of 300 MHz (with no L2 cache), Intel added the letter “A” after the number. Therefore, the Celeron A 300MHz version is known as 300A.

Figure 2: Detail of the Celeron 300A marking, with 128KB on-die L2 cache.

Main features of Celeron A were:

• Based on Pentium II with Deschutes core
• Manufacturing process: 0.25 μm
• L1 cache: 32 KB total, 16 KB for instructions and 16 KB for data
• L2 cache: 128 KB
• External clock rate: 66 MHz
• Packaging: SEPP
• Socket: Slot 1

Available models of Celeron A are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

Model	Internal Clock	Voltage	TDP
SL2WM	300 MHz	2 V	19.05 W
SL32A	300 MHz	2 V	19.05 W
SL32B	333 MHz	2 V	20.94 W
SL2WN	333 MHz	2 V	20.94 W
SL376	366 MHz	2 V	21.7 W
SL37Q	366 MHz	2 V	21.7 W
SL37V	400 MHz	2 V	23.7 W
SL39Z	400 MHz	2 V	23.7 W

As of the launch of Pentiu
m II, Intel started to produce its processors in the form of cartridge instead of sockets. This was the way found by Intel to transfer L2 cache, which was located on the motherboard, to the inside of the processor. In fact, L2 cache was not built-in the processor, but soldered on the same printed circuit board of the processor.

Intel had already tried before to bring L2 cache to the inside of the processor with Pentium Pro. The problem was that this solution was expensive, since there were two cores installed in the same package: one with the Pentium Pro processor and the other with 256 KB, 512 MB or 1 MB of L2 cache.

The cartridge idea didn’t work out and, in August, 1998, Intel started to produce its processors using sockets once again. The processors based on cartridge were expensive because they demanded retention mechanisms and bigger and more elaborated coolers.

Celeron PPGA was a Celeron A model developed to be installed in a socket instead of a slot. It had PPGA packaging and was installed in socket 370 motherboards. Celeron PPGA was also based in Pentium II Deschutes core processor and could be found at speeds of 300 MHz, 333 MHz, 366 MHz, 400 MHz, 433 MHz, 466 MHz, 500 MHz and 533 MHz.

Figure 3: Celeron A with PPGA package.

Celeron PPGA can be installed in slot 1 motherboards through an adapter board, presented in Figure 4.

Figure 4: Adaptor board to install the Celeron PPGA on a slot 1 motherboard.

Main features of Celeron PPGA were:

• Based on Pentium II with Deschutes core
• Manufacturing process: 0.25 μm or 0.18 μm
• L1 cache: 32 KB total, 16 KB for instructions and 16 KB for data
• L2 cache: 128 KB
• External clock rate: 66 MHz
• Packaging: PPGA
• Socket: Socket 370

Available models of Celeron PPGA are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

Model	Internal Clock	Voltage	TDP	Technology
SL36A	300 MHz	2 V	19.05 W	0.18 µm
SL35Q	300 MHz	2 V	19.05 W	0.18 µm
SL35R	333 MHz	2 V	20.94 W	0.25 µm
SL36B	333 MHz	2 V	20.94 W	0.25 µm
SL35S	366 MHz	2 V	21.7 W	0.25 µm
SL36C	366 MHz	2 V	21.7 W	0.25 µm
SL37X	400 MHz	2 V	23.7 W	0.25 µm
SL3A2	400 MHz	2 V	23.7 W	0.25 µm
SL3BA	433 MHz	2 V	24.1 W	0.25 µm
SL3BS	433 MHz	2 V	24.1 W	0.25 µm
SL3EH	466 MHz	2 V	25.7 W	0.25 µm
SL3FL	466 MHz	2 V	25.7 W	0.25 µm
SL3LQ	500 MHz	2 V	27.2 W	0.25 µm
SL3FZ	533 MHz	2 V	28.3 W	0.25 µm
SL3PZ	533 MHz	2 V	28.3 W	0.25 µm

Celeron Coppermine was based on Pentium III Coppermine core architecture and had approximately 28 millions of transistors. This was a huge figure, since Celeron SEPP had 7.5 million transistors and Celeron A had only 19 million. This increase in the number of transistors is due to the production technology used on Celeron Coppermine, which was of 0.18µm (the previous versions used a 0.25µm technology). The smaller the technology architecture, the fewer will be the heat generated by the processor and the bigger will be the clock it can reach.

The packaging used by Celeron Coppermine was FC-PGA, the same kind used by Pentium III, and it also used the socket 370 platform.

Celeron Coppermine had 32 KB of L1 cache, 128 KB of L2 cache, and a support to SSE instructions and could be found on versions ranging from 533 MHz to 1.1 GHz. All Celeron Coppermine processors with a clock inferior to 800 MHz works externally at 66 MHz. Celeron Coppermine from 800 MHz to 1.1 GHz works externally at 100 MHz.

Figure 5: Celeron Coppermine with FC-PGA packaging.

Main features of Celeron Coppermine were:

• Based on Pentium III with Coppermine core
• Manufacturing process: 0.18 μm
• L1 cache: 32 KB total, 16 KB for instructions and 16 KB for data
• L2 cache: 128 KB
• External clock rate: 66 MHz (models up to 766 MHz) or 100 MHz (models starting at 800 MHz)
• Packaging: FC-PGA
• Socket: Socket 370
• Added support to SSE instructions

Available models of Celeron Coppermine are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

Modelo	Internal Clock	External Clock	Voltage	TDP
SL46S	533 MHz	66 MHz	1.5 V	11.2 W
SL3W7	566 MHz	66 MHz	1.5 V	11.9 W
SL4PC	566 MHz	66 MHz	1.7 V	11.9 W
SL4NW	566 MHz	66 MHz	1.7 V	11.9 W
SL46T	566 MHz	66 MHz	1.5 V	11.9 W
SL3W8	600 MHz	66 MHz	1.5 V	12.6 W
SL46U	600 MHz	66 MHz	1.5 V	12.6 W
SL4PB	600 MHz	66 MHz	1.7 V	12.6 W
SL4NX	600 MHz	66 MHz	1.7 V	12.6 W
SL3VS	633 MHz	66 MHz	1.65 V	16.5 W
SL4PA	633 MHz	66 MHz	1.7 V	16.5 W
SL3W9	633 MHz	66 MHz	1.6 V	16.5 W
SL4NY	633 MHz	66 MHz	1.7 V	16.5 W
SL4AB	667 MHz	66 MHz	1.65 V	17.5 W
SL4NZ	667 MHz	66 MHz	1.7 V	17.5 W
SL48E	667 MHz	66 MHz	1.65 V	17.5 W
SL4P9	667 MHz	66 MHz	1.7 V	17.5 W
SL48F	700 MHz	66 MHz	1.65 V	18.3 W
SL4P2	700 MHz	66 MHz	1.7 V	18.3 W
SL4P8	700 MHz	66 MHz	1.75 V	18.3 W
SL4E6	700 MHz	66 MHz	1.6 V	18.3 W
SL4P3	733 MHz	66 MHz	1.6 V	19.1 W
SL4P7	733 MHz	66 MHz	1.7 V	19.1 W
SL52Y	733 MHz	66 MHz	1.25 V – 1.4 V	22.8 W
SL4QF	766 MHz	66 MHz	1.6 V	20 W
SL5EA	766 MHz	66 MHz	1.75 V	23.6 W
SL52X	766 MHz	66 MHz	1.75 V	23.6 W
SL4P6	766 MHz	66 MHz	1.7 V	20 W
SL54P	800 MHz	100 MHz	1.75 V	24.5 W
SL5WW	800 MHz	100 MHz	1.75 V	24.5 W
SL55R	800 MHz	100 MHz	1.7 V	20.8 W
SL4TF	800 MHz	100 MHz	1.7 V	20.8 W
SL5EB	800 MHz	100 MHz	1.75 V	24.5 W
SL5WC	800 MHz	100 MHz	1.75 V	24.5 W
SL5GA	850 MHz	100 MHz	1.7 V	22.5 W
SL5GB	850 MHz	100 MHz	1.7 V	22.5 W
SL5WX	850 MHz	100 MHz	1.75 V	25.7 W
SL54Q	850 MHz	100 MHz	1.25 V – 1.4 V	25.7 W
SL5EC	850 MHz	100 MHz	1.75 V	25.7 W
SL5WB	850 MHz	100 MHz	1.75 V	25.7 W
SL633	900 MHz	100 MHz	1.75 V	30 W
SL5WY	900 MHz	100 MHz	1.75 V	26.7 W
SL5LX	900 MHz	100 MHz	1.75 V	26.7 W
SL5WA	900 MHz	100 MHz	1.75 V	26.7 W
SL5MQ	900 MHz	100 MHz	1.75 V	26.7 W
SL5UZ	950 MHz	100 MHz	1.75 V	26.7 W
SL5V2	950 MHz	100 MHz	1.75 V	26.7 W
SL634	950 MHz	100 MHz	1.75 V	32 W
SL5XQ	1GHz	100 MHz	1.75 V	29 W
SL635	1GHz	100 MHz	1.75 V	29 W
SL5XT	1GHz	100 MHz	1.75 V	29 W
SL5XU	1.1GHz	100 MHz	1.75 V	33 W
SL5XR	1.1GHz	100 MHz	1.75 V	33 W

Celeron Tualatin was based on Pentium III Tualatin core and had no more than 44 million transistors. This increase on the number of transistors is due to the architecture technology used on Celeron Tualatin, which was of 0.13 µm (Celeron III used a 0.25 µm technology). There was an increase on L2 cache, which had 256 KB in this version.

Intel made Celeron Tualatin available for socket 370 on versions ranging from 900 MHz to 1.4 GHz. All these versions of Celeron Tualatin work externally at 100 MHz.

Celeron Tualatin used a new kind of chip package called FC-PGA2, which is different from FC-PGA because of its metallic plate on top of the processor. This metallic plate allows a better heat transference between the processor and the heatsink. This metallic plate also protects the processor core from possible damages that could happen during the cooler installation.

Figure 6: Celeron Tualatin with FC-PGA2 packaging.

In spite of the fact that Celeron Tualatin is a socket 370 processor, it cannot be installed on an old socket 370 motherboard. This is because Tualatin core redefined some 370 socket pins, which makes Celeron Tualatin incompatible for old motherboards. Thus, before buying a motherboard for your Celeron Tualatin, be sure that it is compatible with Tualatin core.

Main features of Celeron Tualatin were:

• Based on Pentium III with Tualatin core
• Manufacturing process: 0.13 μm
• L1 cache: 32 KB total, 16 KB for instructions and 16 KB for data
• L2 cache: 256 KB
• External clock rate: 100 MHz
• Packaging: FC-PGA2
• Socket: Socket 370
• SSE instructions

Available models of Celeron Tualatin are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

Model	Internal Clock	Voltage	TDP
SL6JQ	1 GHz	1.5 V	29.5 W
SL6CB	1 GHz	1.5 V	29.5 W
SL5VP	1 GHz	1.5 V	27.8 W
SL5ZF	1 GHz	1.5 V	27.8 W
SL5ZE	1.1 GHz	1.5 V	28.9 W
SL6RM	1.1 GHz	1.5 V	28.9 W
SL6JR	1.1 GHz	1.5 V	29.5 W
SL5VQ	1.1 GHz	1.5 V	28.9 W
SL6CA	1.1 GHz	1.5 V	30.8 W
SL656	1.2 GHz	1.5 V	32.1 W
SL6RP	1.2 GHz	1.5 V	29.9 W
SL5Y5	1.2 GHz	1.5 V	29.9 W
SL6JS	1.2 GHz	1.5 V	32 W
SL5XS	1.2 GHz	1.5 V	29.9 W
SL68P	1.2 GHz	1.5 V	32 W
SL6C8	1.2 GHz	1.5 V	32 W
SL6JT	1.3 GHz	1.5 V	32 W
SL5ZJ	1.3 GHz	1.5 V	33.4 W
SL6C7	1.3 GHz	1.5 V	32 W
SL5VR	1.3 GHz	1.5 V	33.4 W
SL64V	1.4 GHz	1.5 V	34.8 W
SL68G	1.4 GHz	1.5 V	34.8 W
SL6JV	1.4 GHz	1.5 V	33.2 W
SL6JU	1.4 GHz	1.5 V	–
SL6C6	1.4 GHz	1.5 V	–

Celeron Willamette is a 7th generation processor based on Pentium 4 Willamette core. It uses the FC-PGA2 packaging and is installed on socket 478 motherboards. It is important to remember that the first Pentium 4 models used socket 423 motherboards and no version of Celeron was launched for this kind of socket.

The architecture of Celeron Willamette L1 cache is completely different from other Celeron models presented until now, being based on the same architecture used by Pentium 4 processor. Instead of having a L1 data cache and a L1 instruction cache, this Celeron version has a 8KB L1 data cache and a trace execution cache.

The trace execution cache is located between the instruction decoder and the execution unit and is used to store the instructions already decoded. This cache stores up to 12 K microinstructions. Since each microinstruction has approximately 100 bits, this cache unit stores around 150 KB of data.

Another difference between this Celeron model and the previous ones is that it uses a 256-bit data path to communicate with its L2 memory cache, while this communication was previously done using a 64-bit or 128-bit data path.

Another important detail regarding Celeron Willamette is about its external bus operation. Celeron Willamette transfers not only one, but four data per clock pulse. So, the performance of its external bus is four times higher than a conventional external bus which runs with the same clock. Celeron Willamette works externally at a speed of 400 MHz (100 MHz x 4) reaching a theoretical maximum transfer rate of 3.2 GB/s.

Celeron Willamette was built using a process of 0.18 µm. It gives support to SSE2, and is available on versions ranging from 1.7 GHz to 1.8 GHz.

Figure 7: Celeron Willamette with FC-PGA2 packaging.

Figure 8: Celeron Willamette external bus works transferring four data for each clock pulse.

The only difference between Celeron Willamette and Northwood resides in the fact that Celeron Northwood is based on Pentium 4 Northwood core and was built with a technology of 0.13 µm. Everything said about Celeron Willamette is also valid for Celeron Northwood, which is available in clocks ranging from 2.0 GHz to 2.8 GHz.

Main features of Celeron Willamette and Northwood were:

• Based on Pentium 4 with Willamette core (models up to 1.8 GHz) or Northwood core (models starting at 2 GHz)
• Manufacturing process: 0.18 μm (for models based on Willamette core) or 13 μm (for models based on Northwood core)
• L1 cache: 8 KB for data and 150 KB trace cache
• L2 cache: 128 KB
• External clock rate: 400 MHz (100 MHz transferring four data per clock cycle)
• Packaging: FC-PGA2
• Socket: Socket 478
• Added support to SSE2 instructions, keeping support to SSE

Available models of Celeron Willamette and Northwood are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

Model	Internal Clock	Voltage	TDP	Technology
SL68C	1.7 GHz	1.75 V	63.5 W	0.18 µm
SL69Z	1.7 GHz	1.75 V	63.5 W	0.18 µm
SL6A2	1.8 GHz	1.75 V	66.1 W	0.18 µm
SL7RU	1.8 GHz	1.475 V – 1.525 V	59.1 W	0.18 µm
SL68D	1.8 GHz	1.75 V	66.1 W	0.18 µm
SL6LC	2 GHz	1.53 V	52.8 W	0.13 µm
SL68F	2 GHz	1.75 V	–	0.13 µm
SL6HY	2 GHz	1.53 V	52.8 W	0.13 µm
SL6RV	2 GHz	1.25 V – 1.525 V	52.8 W	0.13 µm
SL6VY	2 GHz	1.25 V – 1.525 V	52.8 W	0.13 µm
SL6SW	2 GHz	1.525 V	52.8 W	0.13 µm
SL6VR	2 GHz	1.25 V – 1.525 V	52.8 W	0.13 µm
SL6SY	2.1 GHz	1.525 V	55.5 W	0.13 µm
SL6RS	2.1 GHz	1.25 V – 1.525 V	55.5 W	0.13 µm
SL6VZ	2.1 GHz	1.25 V – 1.525 V	55.5 W	0.13 µm
SL6VS	2.1 GHz	1.25 V – 1.525 V	55.5 W	0.13 µm
SL6SX	2.2 GHz	1.525 V	57.1 W	0.13 µm
SL6W2	2.2 GHz	1.25 V – 1.525 V	57.1 W	0.13 µm
SL6VT	2.2 GHz	1.25 V – 1.525 V	57.1 W	0.13 µm
SL6RW	2.2 GHz	1.25 V – 1.525 V	57.1 W	0.13 µm
SL6T2	2.3 GHz	1.5 V	58.3 W	0.13 µm
SL6XJ	2.3 GHz	1.25 V – 1.525 V	58.3 W	0.13 µm
SL6T3	2.3 GHz	1.525 V	58.3 W	0.13 µm
SL6T5	2.3 GHz	1.525 V	58.3 W	0.13 µm
SL6WD	2.3 GHz	1.25 V – 1.525 V	58.3 W	0.13 µm
SL6VU	2.4 GHz	1.25 V – 1.525 V	59.8 W	0.13 µm
SL6W4	2.4 GHz	1.25 V – 1.525 V	59.8 W	0.13 µm
SL6XG	2.4 GHz	1.525 V	59.8 W	0.13 µm
SL72B	2.5 GHz	1.25 V – 1.525 V	61 W	0.13 µm
SL6ZY	2.5 GHz	1.25 V – 1.525 V	61 W	0.13 µm
SL6W5	2.6 GHz	1.25 V – 1.525 V	62.6 W	0.13 µm
SL6VV	2.6 GHz	1.25 V – 1.525 V	62.6 W	0.13 µm
SL77S	2.7 GHz	1.25 V – 1.525 V	66.8 W	0.13 µm
SL77U	2.7 GHz	1.25 V – 1.525 V	66.8 W	0.13 µm
SL77V	2.8 GHz	1.25 V – 1.525 V	68.4 W	0.13 µm
SL77T	2.8 GHz	1.25 V – 1.525 V	68.4 W	0.13 µm

Celeron D is based on Pentium 4 Prescott core and is built on 90- or 65-nanometer technology.

Celeron D has a L1 data cache of 16 KB, a L2 memory cache of 256 KB, works externally at 533 MHz (133 MHz transferring four data per each clock cycle), gives support to the multimedia instructions SSE3, FC-PGA2 packaging, socket 478 or 775 and can be found with c
lock speed ranging from 2.53 GHz to 3.2 GHz. Being a simplified version of Pentium 4 Prescott, Celeron D does not support the Hyper-Threading technology, which allows the simulation of two logical processors on one single material processor that is present on Pentium 4 processors.

Figure 9: 2.8 GHz Celeron D with socket 478 pin.

Figure 10: 775 pin layout used by Pentium 4 and Celeron D processors.

Figure 11: Detail of a 775 socket. Note that the pins are situated on the socket and not on the processor.

Main features of Celeron D are:

• Based on Pentium 4 with Prescott core
• Manufacturing process: 90 nm or 65 nm
• L1 cache: 16 KB for data and 150 KB trace cache
• L2 cache: 256 KB
• External clock rate: 533 MHz (133 MHz transferring four data per clock cycle)
• Packaging: FC-PGA2 (socket 478) or FC-LGA (socket LGA775)
• Socket: Socket 478 or Socket LGA775
• Added support to SSE3 instructions, keeping support to SSE and SSE2
• Execute Disable technology on selected models
• EM64T Technology (a.k.a. “64-bit technology”) on selected models

Available models of Celeron D are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

sSpec	Model	Internal Clock	L2 Cache	Voltage	TDP
SL9KJ	365	3.60 GHz	512 KB	1.25 V – 1.30 V	65 W
SL9KK	360	3.46 GHz	512 KB	1.25 V – 1.30 V	65 W
SL96N	356	3.33 GHz	512 KB	1.25 V – 1.30 V	86 W
SL8HS	355	3.33 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8HF	351	3.20 GHz	256 KB	1.25 V – 1.40 V	84 W
SL96P	352	3.20 GHz	512 KB	1.25 V – 1.30 V	86 W
SL8HQ	350	3.20 GHz	256 KB	1.25 V – 1.40 V	73 W
SL9BS	351	3.20 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7TZ	351	3.20 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7NY	N/A	3.20 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8HP	345	3.06 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7W3	345	3.06 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7VV	345J	3.06 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TY	346	3.06 GHz	256 KB	1.25 V – 1.40 V	84 W
SL8HD	346	3.06 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TQ	345J	3.06 GHz	256 KB	1.25 V – 1.40 V	84 W
SL9KN	347	3.06 GHz	512 KB	1.25 V – 1.40 V	65 W
SL9BR	346	3.06 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7DN	345	3.06 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7NX	345	3.06 GHz	256 KB	1.25 V – 1.40 V	73 W
SL9XU	347	3.06 GHz	512 KB	1.25 V – 1.40 V	86 W
SL7TP	340J	2.93 GHz	256 KB	1.25 V – 1.40 V	84 W
SL8HB	341	2.93 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7W2	340	2.93 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7TX	341	2.93 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TS	340	2.93 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7RN	340	2.93 GHz	256 KB	1.287 V – 1.40 V	73 W
SL7SV	340	2.93 GHz	256 KB	1.25 V – 1.40 V	84 W
SL8HN	340	2.93 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7Q9	340	2.93 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7C7	335	2.80 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7NW	335	2.80 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7VT	335J	2.80 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TJ	335	2.80 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7TN	335J	2.80 GHz	256 KB	1.287 V – 1.40 V	84 W
SL7L2	335	2.80 GHz	256 KB	1.287 V – 1.40 V	73 W
SL7SU	335	2.80 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TW	336	2.80 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7DM	335	2.80 GHz	256 KB	1.25 V – 1.40 V	73 W
SL98W	336	2.80 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7VZ	335	2.80 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8HM	335	2.80 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8H9	336	2.80 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TV	331	2.66 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7NV	330	2.66 GHz	256 KB	1.287 V – 1.40 V	73 W
SL8H7	331	2.66 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TH	330	2.66 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8HL	330	2.66 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7TM	330J	2.66 GHz	256 KB	1.287 V – 1.40 V	84 W
SL7ST	330	2.66 GHz	256 KB	1.25 V – 1.40 V	84 W
SL98V	331	2.66 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7DL	330	2.66 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7VS	330J	2.66 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7C6	330	2.66 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7KZ	330	2.66 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7VY	330	2.66 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7SS	325	2.53 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7C5	325	2.53 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7NU	325	2.53 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7ND	325	2.53 GHz	256 KB	1.287 V – 1.40 V	73 W
SL98U	326	2.53 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7KY	325	2.53 GHz	256 KB	1.287 V – 1.40 V	73 W
SL8HK	325	2.53 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7VR	325J	2.53 GHz	256 KB	1.25 V – 1.40 V	84 W
SL8H5	326	2.53 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7TU	326	2.53 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7VX	325	2.53 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7TL	325J	2.53 GHz	256 KB	1.287 V – 1.40 V	84 W
SL7TG	325	2.53 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7C4	320	2.40 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7KX	320	2.40 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7VW	320	2.40 GHz	256 KB	1.287 V – 1.40 V	73 W
SL7VQ	320	2.40 GHz	256 KB	1.25 V – 1.40 V	84 W
SL7JV	320	2.40 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8HJ	320	2.40 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7XG	315	2.26 GHz	256 KB	1.287 V – 1.40 V	73 W
SL8HH	315	2.26 GHz	256 KB	1.25 V – 1.40 V	73 W
SL7WS	315	2.26 GHz	256 KB	1.25 V – 1.40 V	73 W
SL93Q	315	2.26 GHz	256 KB	1.25 V – 1.40 V	73 W
SL87K	315	2.26 GHz	256 KB	1.287 V – 1.40 V	73 W
SL7XY	N/A	2.26 GHz	256 KB	1.287 V – 1.40 V	73 W
SL8AW	315	2.26 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8RZ	310	2.13 GHz	256 KB	1.25 V – 1.40 V	73 W
SL93R	310	2.13 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8S4	310	2.13 GHz	256 KB	1.25 V – 1.40 V	73 W
SL8S2	310	2.13 GHz	256 KB	1.25 V – 1.40 V	73 W

sSpec	Model	Technology	Socket	Execute Disable	EM64T
SL9KJ	365	65 nm	775	Yes	Yes
SL9KK	360	65 nm	775	Yes	Yes
SL96N	356	65 nm	775	Yes	Yes
SL8HS	355	90 nm	775	Yes	Yes
SL8HF	351	90 nm	775	Yes	Yes
SL96P	352	65 nm	775	Yes	Yes
SL8HQ	350	90 nm	478	No	No
SL9BS	351	90 nm	775	Yes	Yes
SL7TZ	351	90 nm	775	Yes	Yes
SL7NY	N/A	90 nm	478	No	No
SL8HP	345	90 nm	478	No	No
SL7W3	345	90 nm	478	No	No
SL7VV	345J	90 nm	775	Yes	No
SL7TY	346	90 nm	775	Yes	Yes
SL8HD	346	90 nm	775	Yes	Yes
SL7TQ	345J	90 nm	775	Yes	No
SL9KN	347	65 nm	775	Yes	Yes
SL9BR	346	90 nm	775	No	Yes
SL7DN	345	90 nm	478	No	No
SL7NX	345	90 nm	478	No	No
SL9XU	347	65 nm	775	No	Yes
SL7TP	340J	90 nm	775	No	No
SL8HB	341	90 nm	775	No	Yes
SL7W2	340	90 nm	478	No	No
SL7TX	341	90 nm	775	No	Yes
SL7TS	340	90 nm	478	No	No
SL7RN	340	90 nm	478	No	No
SL7SV	340	90 nm	775	No	No
SL8HN	340	90 nm	478	No	No
SL7Q9	340	90 nm	478	No	No
SL7C7	335	90 nm	478	No	No
SL7NW	335	90 nm	478	No	No
SL7VT	335J	90 nm	775	Yes	No
SL7TJ	335	90 nm	478	No	No
SL7TN	335J	90 nm	775	Yes	No
SL7L2	335	90 nm	478	No	No
SL7SU	335	90 nm	775	No	No
SL7TW	336	90 nm	775	Yes	Yes
SL7DM	335	90 nm	478	No	No
SL98W	336	90 nm	775	No	Yes
SL7VZ	335	90 nm	478	No	No
SL8HM	335	90 nm	478	No	No
SL8H9	336	90 nm	775	Yes	Yes
SL7TV	331	90 nm	775	Yes	Yes
SL7NV	330	90 nm	478	No	No
SL8H7	331	90 nm	775	No	Yes
SL7TH	330	90 nm	478	No	No
SL8HL	330	90 nm	478	No	No
SL7TM	330J	90 nm	775	Yes	No
SL7ST	330	90 nm	775	No	No
SL98V	331	90 nm	775	No	Yes
SL7DL	330	90 nm	478	No	No
SL7VS	330J	90 nm	775	Yes	No
SL7C6	330	90 nm	478	No	No
SL7KZ	330	90 nm	478	No	No
SL7VY	330	90 nm	478	No	No
SL7SS	325	90 nm	775	No	No
SL7C5	325	90 nm	478	No	No
SL7NU	325	90 nm	478	No	No
SL7ND	325	90 nm	478	No	No
SL98U	326	90 nm	775	No	Yes
SL7KY	325	90 nm	478	No	No
SL8HK	325	90 nm	478	No	No
SL7VR	325J	90 nm	775	Yes	No
SL8H5	326	90 nm	775	Yes	Yes
SL7TU	326	90 nm	775	Yes	Yes
SL7VX	325	90 nm	478	No	No
SL7TL	325J	90 nm	775	Yes	No
SL7TG	325	90 nm	478	No	No
SL7C4	320	90 nm	478	No	No
SL7KX	320	90 nm	478	No	No
SL7VW	320	90 nm	478	No	No
SL7VQ	320	90 nm	775	Yes	No
SL7JV	320	90 nm	478	No	No
SL8HJ	320	90 nm	478	No	No
SL7XG	315	90 nm	478	No	No
SL8HH	315	90 nm	478	No	No
SL7WS	315	90 nm	478	No	No
SL93Q	315	90 nm	478	No	No
SL87K	315	90 nm	478	No	No
SL7XY	N/A	90 nm	478	No	No
SL8AW	315	90 nm	478	No	No
SL8RZ	310	90 nm	478	No	No
SL93R	310	90 nm	478	No	No
SL8S4	310	90 nm	478	No	No
SL8S2	310	90 nm	478	No	No

Celeron 400 series processors are based on Core microarchitecture, the same used by Core 2 Duo CPUs having, however, only one processing core (Core 2 Duo processors have two processing cores). Celeron 400 series main technical specs are:

• Based on Conroe-L core, the same one used by Core 2 Duo but with just one processing core
• Manufacturing process: 65 nm
• L1 cache: 64 KB total, 32 KB for instructions and 32 KB for data.
• L2 cache: 512 KB.
• External clock rate: 800 MHz (200 MHz transferring four data per clock cycle)
• Packaging: FC-LGA6
• Socket: Socket LGA775.
• SSE, SSE2 and SSE3 instructions
• Execute Disable technology
• EM64T technology (a.k.a. 64-bit technology)

Available models of Celeron 400 series are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

sSPEC	Model	Internal Clock	Voltage	TDP
SLAFZ	450	2.2 GHz	1.0 V – 1.3375V	35 W
SL9XL	440	2 GHz	1.050V – 1.300V	35 W
SL9XN	430	1.80 GHz	1.050V – 1.300V	35 W
SL9XP	420	1.60 GHz	1.050V – 1.300V	35 W

Intel is finally bringing dual-core technology to the Celeron family. At first this could sound contradictory since the goal of Celeron processors is to be a low-cost CPU targeted to those users that can’t or don’t want to pay for a CPU with the latest technological features available. However dual-core technology can’t be considered “the latest technological feature” anymore and historically what Intel does is to push what was once a high-end feature to the mainstream CPUs and then, after a while, to the entry-level CPUs. Since today’s high-end CPUs are quad-core and Intel has been selling only dual-core CPUs for the mainstream market for quite a while, not more natural than start introducing dual-core CPUs to the entry-level market as well. As you can see on a near future we will only have CPUs with at least two cores available on the market.

Dual-core Celeron processors are based on Core microarchitecture, the same used by Core 2 Duo CPUs. These CPUs are also known by the codename Allendale.

Celeron E1000 series main features are:

• Core microarchitecture
• Dual-core technology
• Manufacturing process: 65 nm
• L1 cache: 64 KB total, 32 KB for instructions and 32 KB for data.
• L2 cache: 512 KB, shared by the two cores
• External clock rate: 800 MHz (200 MHz transferring four data per clock cycle)
• Packaging: FC-LGA6
• Socket: Socket LGA775.
• SSE, SSE2 and SSE3 instructions
• Execute Disable technology
• EM64T technology (a.k.a. 64-bit technology)
• Enhanced SpeedStep technology

Available models of Celeron E1000 series are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

sSpec	Model	Internal Clock	External Clock
SLAQW	E1200	1.6 GHz	800 MHz
SLAR2	E1400	2.0 GHz	800 MHz
SLAQZ	E1500	2.2 GHz	800 MHz
SLAQY	E1600	2.4 GHz	800 MHz

sSpec	Model	TDP	Max. Temp. (°C)	Voltage (V)
SLAQW	E1200	65 W	73.3	0.85 – 1.5
SLAR2	E1400	65 W	73.3	0.85 – 1.5
SLAQZ	E1500	65 W	73.3	0.85 – 1.5
SLAQY	E1600	65 W	73.3	0.85 – 1.5

E3000 Series Celeron processors have two processing cores and they are based in 45 nm core microarchiteture (Penryn Core).

Celeron E3000 series main features are:

• Core microarchitecture
• Dual-core technology
• Manufacturing process: 45 nm
• L1 cache: 64 KB total, 32 KB for instructions and 32 KB for data.
• L2 cache: 1 MB, shared by the two cores
• External clock rate: 800 MHz (200 MHz transferring four data per clock cycle)
• Packaging: FC-LGA6
• Socket: Socket LGA775.
• SSE, SSE2, SSE3 and SSE4.1 instructions
• Execute Disable technology
• EM64T technology (a.k.a. 64-bit technology)
• Enhanced SpeedStep technology
• Intel Virtualization Technology

Available models of Celeron E3000 series are listed on the chart below. TDP stands for Thermal Design Power and indicates the CPU maximum thermal dissipation.

sSpec	Model	Internal Clock	External Clock
SLGTY	E3500	2.7 GHz	800 MHz
SLGTZ	E3400	2.6 GHz	800 MHz
SLGU4	E3300	2.5 GHz	800 MHz
SLGU5	E3200	2.4 GHz	800 MHz

sSpec	Model	TDP	Max. Temp. (°C)	Voltage (V)
SLGTY	E3500	65 W	74.1	0.85 – 1.3635
SLGTZ	E3400	65 W	74.1	0.85 – 1.3625
SLGU4	E3300	65 W	74.1	0.85 – 1.3625
SLGU5	E3200	65 W	74.1	0.85 – 1.3625