In the following we will briefly list all laptop graphics adapters known to us. The GPUs are sorted by performance and classified in different classes. To get a better overview on current laptop graphics adapters, older cards can be greyed out.
Two GeForce GTX 580M (GF114 Fermi) cards in SLI mode. Because of the maximum power usage of 2x 100 Watt of both MXM boards, the GTX580M SLI can only be used in very large laptops.
Two GeForce GTX 485M (GF104 Fermi) cards in SLI mode. Because of the maximum power usage of 2x 100 Watt of both MXM boards, the GTX485M SLI can only be used in very large laptops.
Two HD 6970M graphics card in Crossfire mode (also sometimes called 6970M X2). The gaming performance is usually a bit lower than a similar Nvidia SLI system due to comparatively worse driver support.
Two GeForce GTX 480M (Fermi) cards in SLI mode. Because of the maximum power usage of 2x 100 Watt of both MXM boards, the GTX480M SLI can only be used in very large laptops.
High-end graphics card from AMD based on the desktop HD 6870, but with slower clock rates. UVD3 decoding and Eyefinity+ technology are still supported.
The ATI Mobility Radeon HD 5870 Crossfire is a combination of two Mobility 5870 graphics cards. It suffers from micro stuttering in low framerates and has high power demands . The performance should be 0-80% better than a single Mobility 5870.
Two GeForce GTX 285M graphics cards in SLI combination. Performance is about 0-40% faster than a single GTX 285M and, due to the slightly higher clock rate, only a bit faster than a GTX 280M SLI combination. Problems with micro stuttering can occur with this dual-card setup, most notable if around 30fps.
Fermi-based mobile workstation graphics card with ECC RAM and DP floating point support. The Quadro 5010M should be based on the GF100 chip (or GeForce GTX 480M) and is therefore mostly suited for larger laptops (17" or greater) with ample cooling.
Two GeForce GTX 280M graphics cards in SLI combination. The performance is about 0-40% faster than a single GTX 280M, depending on the application. Due to the SLI setup, users may experience micro stuttering, especially in the 30fps range.
High-end graphics card from AMD based on the desktop HD 6850 and mobile 6970M with lower core clock speeds. The GPU supports UVD3 video processing and Eyefinity+.
A mobile workstation graphics card based on the Fermi architecture. Compared to the Quadro 5010M, the 4000M has similar power requirements (100W TDP) but lacks support for ECC RAM and DP floating point support.
Mobile Fermi GPU comparable to a lower-clocked desktop GTX 465. Due to the 100 Watt TDP (including board and memory), the GTX 480M is only suited for large laptops.
The successor of the GeForce GTX 460M based on the new GF116 chip. The performance is about 13% better than the 460M but with similar power requirements due to hardware optimizations.
Two GeForce GTX 260M in SLI combination. As the 260M is only minimally faster than a 9800M GTX, the 260M SLI should perform similar to a 9800M GTX SLI (or about 0-40% faster than a single 260M depending on application). The dual-GPU setup may suffer from micro stuttering in low fps ranges.
Fermi-based mobile workstation graphics card with ECC RAM and DP floating point support. Likely based on the GF100 chip / GeForce GTX 480M, but with with less shaders.
Professional workstation graphics card with certified drivers for optimal CAD and DCC support. The Quadro FX 3800M is based on the GeForce GTX 280M core and when compared to the FX 3700M, the FX 3800M features higher clock speeds and is produced on a 55nm manufacturing process.
The GeForce GTX 280M is based on the G92b chip with all 128 pipelines and, as a result, shares more similarities to the desktop 9800 GTX+ than the desktop GTX 280. Regardless, the high clock rate makes the GTX 280M considerably faster than the 9800M GTX.
Professional high-end mobile workstation graphics card with certified drivers. Features even more shaders than the 9800M GTX (128 versus 112) at compareable clock speed.
Workstation graphics adapter based on the Mobility Radeon HD 4860 with up to 1 GB of GDDR5 graphics memory (that compensates the 128 Bit memory bus). Should compete with the Quadro FX 3700M and even surpass it in some professional benchmarks.
The Nvidia GeForce GTX 260M is basically a higher clocked GeForce 9800M GTX in 55nm and based on the G92b core (therefore not compareable to the desktop GTX 260). Compared with the 9800M GTX, the GTX 260M is produced in 55nm and therefore higher clocked.
Professional high-end workstation graphics card with certified drivers. Due to 96 shader cores it is similar to the 9800M GT but may be produced in 55nm already (and it features a higher core clock).
Successor of the GeForce GT 445M and available in many different versions based on different chips (GF106, GF116, GF108) with different graphics memory (128 Bit, 192 Bit, DDR3, GDDR5) and varying core speeds.
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6770M and a 6620G or 6520G APU graphics card (e.g. found in the AMD 3500M CPU).
Fastest card of the 6600M/6700M series with GDDR5 memory and UVD3 and Eyefinity+ support. Successor of the HD 5770 with more cores and higher clock rates.
The HD 5850 is a slower clocked HD 5870 and also depends on fast GDDR5 memory to perform in the high end segment (using DDR3 it is signinficantly slower). It is based on the Desktop HD 5770 chip but with a lower clock speed.
The professional graphic card for CAD, DCC and visualising applications is based upon the 8800M GTX (according to GPU-Z on the GTS). Professional drivers grant an errorfree and faster representation with professional applications than the GeForce models.
Same chip as the GTS 260M but with higher clock rates (412 versus 396 Gigaflops according to Nvidia). Delivers a high end performance with GDDR5 graphics memory.
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6750M and a 6620G or 6520G APU graphics card (e.g. found in the AMD 3500M CPU).
The GTS260M is a higher clocked 250M that also consumes a lot more power according to the official TDP values (38W versus 28W). Because of the 128 Bit bus it should perform worse than a 9800M GT (perhaps the performance can be reached with GDDR5 memory).
The HD 5830 is a slow clocked HD 5850 without GDDR5 support. Because of the 128 Bit memory bus, the used (G)DDR3 should be the bottle neck of this card.
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6650M and a 6620G APU graphics card (e.g. found in the AMD 3500M CPU) or a HD 6730M and 6520G.
Fastest model of the HD 5600/5700 series with GDDR5 support. The HD 5770 is not based on the desktop HD 5770, but a faster clocked Mobility Radeon HD 5650 with 400 shaders.
Depending on the used graphic memory middle - high end graphics card (DDR3 - GDDR5) with DirectX 11 support. Technically a higher clocked HD 5650 with GDDR5 support.
The HD 5730 is a higher clocked HD 5650 (and therefore not based on the desktop HD 5700 series). It does not support GDDR5 and therfore performs like a middle class graphics card with DirectX 11.
Successor of the Mobility Radeon HD 5650 with more cores, UVD3 processor and Eyefinity+. Due to the same codename, the 6650M should be a HD 6750M with slow DDR3 memory.
The GPU has 96 shader cores but only a 128 bit memory bus that supports GDDR5 memory. With DDR3 memory, the GTS 250M performs clearly worse. Because of the 40nm process (and a selection process) the 250M offers a relatively low power consumption (the 260M needs 10W more).
Mobile workstation mid-range graphics card for 15" laptops. Based on the same core as the GeForce GT 335M but equipped with professional drivers and support.
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6450M or 6470M and a 6620G APU graphics card (in the processor core of the A-Series).
The Nvidia GeForce GT 330M is the successor of the GT 230M and technically just a slightly higher clocked GT 240M (but it should still maintain the power envelope of the GT 230M as the naming suggests).
The GeForce GT 240M is the successor of the GT 130M / 9600M and has now 48 instead of 32 shader cores. Therefore, the performance should be noticeable better. Because of the 40nm process, the TDP is still 23 Watt.
Processor graphics card in the high end Ivy Bridge models. Offers a different clock speed in the different CPU models (ULV to desktop quad core) and therefore a different performance.
The GeForce GT 230M features 48 shader cores as the 9700M GTS but only a 64 bit memory bus. Because of the 40nm process the power consumption is in the region of the GT 130M.
Slower clocked HD 4650 (based on the same chip) and also Mobility Radeon HD 4630 called graphics card that is still produced in 55nm and supports DirectX 10.1.
Asymmetric Crossfire combination of the Radeon HD 6520G processor graphics card and a dedicated Radeon HD 7450M. The performance is only in some games better than the single graphic card and may suffer from micro stuttering.
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6450M or 6470M and a 6520G APU graphics card (in the processor core of the A-Series).
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6490M and a 6480G APU graphics card (in the processor core of the A-Series).
Entry to middle class graphics card based on the Seymore XT codename with support for fast GDDR5. The chip can be clocked at 700-750 with GDDR5 and 800 with slow DDR3.
Business Graphics card that is based on the GeForce GT 520M with special BIOS and drivers for business applications. The clock speeds however can in theory slightly surpass the GT 520M, in the Latitude 6420 however they are at a level of the GT 520M.
The GeForce GT 220M is a relabeled GeForce 9600M GT for OEM laptop sellers. It is for example used in the Medion Akoya P6620 where it uses fast GDDR3 memory. The specs and features are identical to the GeForce 9600M GT.
Professional graphics card with certified drivers for professional 3D applications and CAD with a significant improved OpenGL performance. The chip is based on the 9600M GT consumer cards.
Dual Graphics (asymmetrical CrossFire) combination of a dedicated Radeon HD 6430M, 6450M, or 6470M and a 6480G APU graphics card (in the processor core of the A-Series).
Integrated processor graphics card (in the A4-Series of Llano APUs) without dedicated graphics memory and only 240 of the 400 shader cores. Beware, the version in the 3305M only features 160 shader cores but at a higher core clock.
Entry level DirectX 11 chip with GDDR5 support but only 80 shader cores. Supports Eyefinity (up to 4 monitors) and 8-ch HD audio over HDMI. Performance on par with the old GeForce 8600M GT.
The 5145 is a renamed Mobility Radeon HD 4570 with slightly higher clock rates. Therefore it has no DirectX 11 support and a performance between the 4570 and 5470.
3 upcoming (Q1 2011) integrated graphics card in the Intel Sandy Bridge processors (Core ix-2xxx). The 3000 / 200 is the faster internally GT2 called version with 12 Execution Units (EUs).
The GeForce G210M is the successor of the G110M and also possesses 16 shader cores. Because of the 40nm process, the chip is clocked much higher but is still staying in the same power envelope.
Business graphics card that is based on the GT218 core (e.g. GeForce 305 / 310M) but with drivers that are optimized for stability and compatibility in business applications).
Slightly lower clocked GeForce 310M and therefore also based on the GT218 core that was introduced with the Geforce G210M. Entry-level graphics card that was introduced in late 2010.
Business graphics card that should be based on the GT218 core (e.g. GeForce 210M) but with drivers that are optimized for stability and compatibility in business applications). Compared to the NVS 3100, the 2100 features a lower clock speed.
The GeForce 305M is a slower version of the GeForce 310M and has the same computing power as the 9400M (ION) integrated card (according to Nvidia). Still, due to the dedicated memory, it should be faster in games.
Integrated graphics card in the Intel Sandy Bridge processors (Core ix-2xxx). The 2000 is the slower, internally GT1 called, version with 6 Execution Units (EUs).
Processor graphics card which is integrated in the Sandy Bridge Pentium and Celeron processors. Similar to the desktop HD Graphics 2000 and not related to the old Arrandale processor graphics with the same name.
350 - 1100 MHz, 12 - unified, DX10.1 |
» Chrome9HD *
~ 9%
The VIA S3 Chrome9HD is a chipset graphics card found in the VN1000 chipset for VIA Nano CPUs. In conjunction with the L4700 Quad-Core, the GPU is able to slightly beat the Radeon HD 6310 in the AMD E-350 (3DMark06 according to VIA).
Integrated graphics card in the Zacate netbook processors (e.g. E-450) featuring an UVD3 video decoder and no dedicated memory. Thanks to TurboCore, it can automatically overclock to 600 MHz.
Combination of dedicated Nvidia GeForce 9300M GS or 9200M GS and a 9100M G chipsetz graphics in SLI (GeForceBoost from Hybrid SLI) mode. Should be a little bit faster than a single 9300M GS. Supports the dynamic switching between integrated and dedicated GPU.
ION2 is a GT218 graphics chip for Pinetrail Atom systems (D510, D410, N450) with 8 or 16 shader cores depending on the platform (10", 12", desktop). Compared to ION 1, ION 2 is a dedicated graphics card (connected only by a PCIe 1x due to the Pinetrail limitations) based on the GeForce 305M / 310M. Supports PureVideo HD to decode HD videos.
Integrated graphics card in some Ontario netbook processors (e.g. C-60) featuring an UVD3 video decoder and no dedicated memory. Compared to the HD 6250, the 6290 features Turbo Core to overclock automatically to 400MHz.
Onboard graphics adapter (RS880M chipset) with UVD2 (PIP support) and DX 10.1 support (compared to the older HD 3200). Beware, possibly no 2D acelleration in Windows XP (as the HD3200).
Onboard graphics card that is built in the new Arrandale CPUs (Core i3 / i5 / i7 Dual Cores). Depending on the model and Turbo Boost, the GMA HD is clocked between 166 and 766 MHz.
Onboard (shared Memory) graphics chip (on RS780M chipset) based on the HD 2400 graphics core. It also features the UVD video engine to decode HD videos. Furthermore, it supports Hybrid CrossfireX (for accelleration) and PowerXpress(to save current) with a dedicated graphics adapter (of the HD 3000 line). Beware: Under Windows XP the HD 3200 may have no 2D accelleration because of a driver problem.
Slower clocked Radeon HD 3200 onboard graphic chip with a reduced feature set (missing HD video decoding features?). Beware: Under Windows XP the HD 3200 may have no 2D acceleration because of a driver problem.
Onboard (shared Memory) GPU built in the GM45, GE45 and GS45 chipset (Montevina). Because of two more shaders and a higher core clock, much faster than the old GMA X3100. Still not advisable for gamers (DirectX 10 games not playable or only with very low settings). The integrated video processor is able to help decode HD videos (AVC/VC-2/MPEG2) , e.g., for a fluent Blu-Ray playback with slow CPUs.
The graphics core of the Intel GL40 and GS40 chipset features a slower clocked GMA 4500MHD (400 versus 533 MHz). Because of the slower core speed, full Blu-Ray Logo support is not given and the gaming performance is a bit worse.
Integrated processor graphics card (e.g. in the Atom N2800) without dedicated memory. Most likely based on a PowerVR design similar to the GMA 500 but with higher clock rates.
Integrated processor graphics card (e.g. in the Atom N2600) without dedicated memory. Most likely based on a PowerVR design similar to the GMA 500 but with higher clock rates.
Integrated (shared memory) graphics card in the intel Atom N4xx CPUs. Minimally faster than an old GMA 950 and therefore not suited for 3D games or HD videos (only MPEG2 acceleration).
Onboard (shared memory) graphics card integrated in the SIS M672MX
chipset. Windows Vista Premium certified. Not usable for 3D games (even
less demanding games like WOW are not playable).
Integrated (onboard) graphics chip in the Atom Z600 series CPUs with a licensed PowerVR SGX core. DirectX 10.1 support but because of only 4 shaders not suited for 3D games. The integrated video decoder accelerates the playback of HD videos (MPEG2, VC-1, AVC).
Integrated (onboard) graphics chip on the UL11L, US15L, and US15W chipsets with a licensed PowerVR SGX core. DirectX 10.1 support but because of low clock rates (100-200 MHz UL11L - US15) and only 4 shaders not suited for 3D games. The integrated video decoder accelerates the playback of HD videos (MPEG2, VC-1, AVC).
The integrated graphic card (shared memory) VIA Chrome9 HC IGP is found on the VN896 chipset for notebooks and provides DirectX 9 suport and video acceleration. Windows Vista Aero is possible but only with some stutterings.
The S3 Graphics UniChrome Pro II is a DirectX 7 (without T&L) onboard graphics solution (shared memory) of VIA for laptops with VIA C7-M CPU and VX700 North-Bridge, which is intended for office applications and hardly suited for 3D games. There is no Aero support.
The S3 UniChrome (Pro) is a DirectX 7 (without T&L) onboard graphic solution (shared memory) from VIA for laptops. Mainly, it is intended for office activities and hardly suited for 3D games.