Top 500

Qualcomm Snapdragon X X1-26-100

Qualcomm Snapdragon X X1-26-100

Snapdragon X X1-26-100: A Fine Processor at $550, a Bad One at $1,200

Qualcomm launched the X1-26-100 in January 2025 as the cheapest way into Windows on Arm. Eight Oryon cores at 2.98 GHz, no split between performance and efficiency cores, 4 nm. The chip was never the problem: the first laptop built around it was the Asus Zenbook A14 at $1,200.

It is now autumn 2026, and the market has sorted things out. The second generation is on shelves, but the cheapest Snapdragon X2 Plus laptop runs about $970. Machines with the X1-26-100 sit at $530-600, and drop to $400-450 on sale.

One caveat remains, and it is a serious one. The Adreno X1-45 graphics are weak by 2026 standards, and a low price does not fix that.

Where It Sits in the Lineup

The X1-26-100 is the entry model of the Snapdragon X series, one step below X Plus and two below X Elite. Eight identical first-generation Oryon cores based on Nuvia's work, arranged in two clusters, no multithreading.

Here is the detail most coverage skips: this is not a cut-down X Elite die. The chip uses a separate, smaller die codenamed Purwa, and the cost savings are built into the design itself. The memory controller was not trimmed, though: 128 bits and LPDDR5X-8448, the same as the higher-end parts. The savings came out of the GPU and the clocks.

The closest relative is the Snapdragon X Plus X1P-42-100. Eight cores, the exact same Adreno X1-45 at 1.7 TFLOPS, clock speeds the only difference. On paper that looks like ten percent; in actual Cinebench runs it shrinks to 3-4 percent. Do not pay extra for it.

There is also a rename. In early 2026 the Asus Vivobook S16 S5608 shipped with an X1-26-101 on the Purwa SE2 die, with identical specifications. Different number, same chip.

Performance

In Geekbench 6 the platform averages roughly 2,100-2,150 single-core and 10,500-11,500 multi-core. The spread across individual machines is suspiciously wide: the Vivobook S16 measured 2,070 and 10,618, the IdeaPad Slim 3x 2,675 and 14,998. That second pair sits outside every other result recorded for this chip and should not be leaned on.

Cinebench 2024 gives a much steadier picture: a stable 96 points single-core on every laptop tested and 646-708 multi-core. That puts it level with the Core Ultra 7 165H (690) and Ryzen AI 5 340 (668) in multi-core, and the same 96 points single-core as a Core Ultra 7 155U.

Now the part that actually matters. In Cinebench R23 the same processor scores 969 single-core against 1,651 for a Ryzen 5 8640U, even though the two tie in Cinebench 2024. The explanation is simple: R23 has no native Windows-on-Arm build and runs through x86 translation. That gap puts the emulation penalty somewhere in the 30-40 percent range for single-threaded work, which lines up with other Prism measurements.

The practical takeaway: on native software the chip matches mid-range mobile Intel and AMD parts from 2023-2024. On older software that was never rebuilt for Arm, it drops a tier.

Sustained power draw is 15-30 W including memory, though vendors configure short-burst limits as high as 50-65 W.

Results From Specific Laptops

Laptop Power limits Cinebench 2024 Multi Cinebench R23 Multi Fire Strike
Lenovo IdeaPad Slim 3x (15Q8X10) 65 / 50 W 708 7,539 3,628
Asus Vivobook S16 S3607QA 45 / 35 W 698 7,446 3,627
Asus Zenbook A14 UX3407QA thin chassis, 978 g 646 6,897 3,602

The gap between the hottest and coolest machine is about 9 percent on the CPU and under one percent on graphics. A fourth tested laptop, the 16-inch HP OmniBook 3 (16-bz0351), falls in the same range at 7,289 in Cinebench R23.

For an eight-core chip that is remarkably little. The Lenovo, with a 50 W sustained limit, beats the sub-kilogram Zenbook by less than 10 percent, and in the looped Cinebench R15 run it holds 1,411 points against a peak of 1,420, so there is almost no throttling. Paying extra for a chassis with serious cooling makes no sense with this processor.

Graphics

The Adreno X1-45 has 768 shader units running at roughly 1.1 GHz. The architecture is close to the mobile Adreno 730: DirectX 12 but not Ultimate, ray tracing only through Vulkan.

Synthetic results: Time Spy averages 1,043 (X1-26-100 machines measured 1,065 and 1,066), Steel Nomad around 231, Fire Strike about 3,650. In Time Spy that is GeForce GTX 950M and MX150 territory, meaning cards from 2015-2017.

Its ranking depends heavily on the test: in Steel Nomad it beats the Radeon 740M by 14 percent, in Fire Strike it loses by 9. Modern workloads suit it better than old ones, but that does not change the overall picture. The Radeon 760M is 73 percent faster in Steel Nomad, the Radeon 780M nearly double, Intel Arc 130T more than double. It even loses to the Radeon 680M from the Ryzen 6000 generation.

On games, honesty is required: there is no proper set of measurements for this GPU in reliable sources, because too few outlets test budget Arm laptops in games. What is reproducible is a sustained Witcher 3 run at ultra settings in 1080p: about 18-19 frames per second. Several games in Notebookcheck's database are flagged outright as unplayable at the tested settings, and others run with visual artifacts due to drivers. The realistic scenario is older games, lightweight competitive titles and indie games at 720p on low, with compatibility checked title by title.

For work it is sufficient: the desktop, several displays up to 4K, hardware AVC, HEVC and AV1 encoding. For a video editor leaning on GPU effects there is nothing here.

Battery Life

The figures from different reviews measure different things and cannot be added together:

  • Asus Vivobook S16 S3607QA: nearly 20 hours in a web browsing test;
  • Acer Aspire 16 AI: 15 hours 30 minutes in a 4K video loop on a 65 Wh battery;
  • Asus Zenbook A14: over 12 hours of real screen-on time on a 70 Wh battery.

Nothing on x86 matches that runtime at $500-600 right now.

What Is Selling and for How Much

  • HP OmniBook 3 16, 16-inch WUXGA IPS, 16 GB, 512 GB: around $530;
  • Acer Aspire 16 AI (A16-11MT), 16-inch WUXGA 120 Hz touch, 16 GB, 512 GB: $550-565, with refurbished units going for $410;
  • Lenovo IdeaPad Slim 3x, 15.3-inch touch, 16 GB, 256-512 GB: $749 list, $580-680 at retail, $450-550 on sale, refurbished with a 1 TB SSD around $400;
  • Asus Zenbook A14 UX3407QA, 14-inch OLED, 978 grams: launched at $1,200, the line has moved to Snapdragon X2 Elite, so remaining stock is worth buying only at a steep discount.

The price spread comes down to configuration (the Lenovo ships 256 GB at the base tier against 512 GB elsewhere) and to rising memory costs: that same IdeaPad went from $580 to $680 over a few months.

The Competition

AMD Ryzen AI 5 330. Four cores (one Zen 5 and three Zen 5c), Radeon 820M, 50 TOPS. A direct comparison is awkward: every test where both chips appear in the same database runs through emulation on Arm. On that basis the Ryzen wins by 8 percent in Cinebench R23 and loses by 4 in R11.5. Call it a tie, and expect the Snapdragon to pull ahead once the code is native. On graphics the Ryzen trails: 900 Time Spy points against 1,043. But it is x86, with no surprises around legacy software or peripherals, and laptops with it fall to $350-450. For anyone with one mandatory old Windows tool, that is the smarter buy.

AMD Ryzen AI 5 340 and Ryzen 5 240. Similar multi-core throughput, but the Radeon 840M and 760M are one and a half to two times faster than Qualcomm's integrated graphics. Machines start around $650. If you need any graphics at all, this is where the money goes.

Intel Core 5 210H. Higher single-core speed (105 against 96 in Cinebench 2024), but multi-core collapses: 404 points against 708, plus far shorter battery life. Lenovo sells near-identical IdeaPad Slim 3 chassis with this Intel part and with the Qualcomm one, which makes the trade-off easy to see.

Snapdragon X2 Plus. Third-generation Oryon, 3 nm, 80 TOPS, a claimed 35 percent single-core gain. But the cheapest laptop with it costs around $970, so it is not a direct rival yet.

Verdict

By current standards the X1-26-100 is a mid-range part in multi-core and lower-middle in single-core. Eight full cores genuinely beat quad-core budget Intel and AMD chips, and that is enough for a browser with thirty tabs, office work, video calls, coursework and light photo editing.

There are three walls: graphics, x86 emulation, and compatibility with your specific software and peripherals. Check them before buying, not after.

A sensible price for a laptop with this chip today is $450-600. Above $700 it loses its point immediately: for that money you can get a Ryzen AI 5 340 machine with twice the graphics performance and no compatibility questions at all, and a little higher up sits the Snapdragon X2 Plus, which is faster on every count. The X1-26-100 was never held back by its cores. It was held back by its price tag, and only in 2026 did that finally land where it belongs.

Top Laptop/Mobile CPU: 144

Basic

Label Name
Qualcomm
Platform
Laptop
Launch Date
January 2025
CPU Name
Qualcomm Oryon CPU
Part Number
X1-26-100
Model Name
?
The Intel processor number is just one of several factors - along with processor brand, system configurations, and system-level benchmarks - to be considered when choosing the right processor for your computing needs.
Qualcomm Snapdragon X X1-26-100

CPU Specifications

Boost Frequency
None
Total Cores
?
Cores is a hardware term that describes the number of independent central processing units in a single computing component (die or chip).
8
CPU Architecture
64-bit architecture
Cache
?
CPU Cache is an area of fast memory located on the processor. Intel® Smart Cache refers to the architecture that allows all cores to dynamically share access to the last level cache.
30 MB
Technology
?
Lithography refers to the semiconductor technology used to manufacture an integrated circuit, and is reported in nanometer (nm), indicative of the size of features built on the semiconductor.
4nm

Memory Specifications

Memory Type
?
Intel® processors come in four different types: Single Channel, Dual Channel, Triple Channel, and Flex Mode. Maximum supported memory speed may be lower when populating multiple DIMMs per channel on products that support multiple memory channels.
LPDDR5x
Max Memory Size
?
Max memory size refers to the maximum memory capacity supported by the processor.
64 GB
Memory Channels
?
The number of memory channels refers to the bandwidth operation for real world application.
8
Max Memory Bandwidth
?
Max Memory bandwidth is the maximum rate at which data can be read from or stored into a semiconductor memory by the processor (in GB/s).
135 GB/s
Maximum Memory Speed
8448 MT/s
Memory Bus Width
16-bit x 8 channels

GPU Specifications

Display Processing Unit
Adreno DPU
External Display Standard
DisplayPort 1.4
GPU Name
Qualcomm Adreno GPU
Max External Display Resolution
3 displays up to UHD 60 Hz HDR10; 2 displays up to 5K 60 Hz or UHD 120 Hz
Max On-Device Display Resolution
Up to QHD+ 120 Hz HDR10
On-Device Display Standard
eDP v1.4b
Video Concurrency
4K 30 FPS 8-bit decode + 1080p 30 FPS encode; 1080p 60 FPS 10-bit decode + 1080p 30 FPS encode
Video Decode
4K 30 FPS 10-bit playback: HEVC, VP9, AV1; 4K 60 FPS 8-bit playback: H.264, HEVC
Video Encode
4K UHD 30 FPS 8-bit recording: H.264, HEVC, AV1
Video Processing Unit
Adreno VPU
Graphics Performance
1.7 TFLOPS

AI Specifications

Micro NPU
Dual Micro NPU on the Qualcomm Sensing Hub
NPU Name
Qualcomm Hexagon NPU
NPU Performance
45 TOPS

Connectivity

Bluetooth Connection Technology
Bluetooth LE
Bluetooth Version
Bluetooth 5.4
Cellular Bandwidth
1000 MHz bandwidth mmWave, 300 MHz bandwidth sub-6 GHz
Cellular Peak Download Speed
10 Gbps
Cellular Peak Upload Speed
3.5 Gbps
Wi-Fi Bands
6 GHz, 5 GHz, 2.4 GHz
Wireless System
Qualcomm FastConnect 7800 Mobile Connectivity System

Interfaces and Ports

SD Standard
SD v3.0
USB Interface Type
3x USB4 40 Gbps, 2x USB 3.2 Gen2x1, 1x eUSB2
USB Version
USB 4.0

Miscellaneous

Always Sensing
Supported
Audio Technology
Qualcomm Aqstic audio technology, Qualcomm aptX Audio
Image Signal Processor
Qualcomm Spectra ISP
Single Camera Support
Up to 36 MP
Video Capture
4K HDR video capture

Geekbench 6

Single Core
2127
Multi Core
10320

Performance

254.7
MB/Sec
File Compression
933.1
11.1
Routes/Sec
Navigation
58.5
50.4
Pages/Sec
HTML5 Browser
261.6
50.3
MPixels/Sec
PDF Renderer
276.2
28.4
Images/Sec
Photo Library
186.8
12.2
KLines/Sec
Clang
84.2
157.9
Pages/Sec
Text Processing
199.3
61.5
MB/Sec
Asset Compression
445.2
64.3
Images/Sec
Object Detection
282.8
8.46
Images/Sec
Background Blur
47.9
66.9
MPixels/Sec
Horizon Detection
382.3
178.5
MPixels/Sec
Object Remover
707.3
75.5
MPixels/Sec
HDR
394.4
26.5
Images/Sec
Photo Filter
100.1
1600
KPixels/Sec
Ray Tracer
12300
67.2
KPixels/Sec
Structure from Motion
387
Single Core
Multi Core

Passmark CPU

Single Core
2869
Multi Core
16359

Performance

Integer Math
Multi Core
37.8 GOps/Sec
Floating Point Math
Multi Core
57 GOps/Sec
Find Prime Numbers
Multi Core
191 M Primes/Sec
Random String Sorting
Multi Core
22.7 M Strings/Sec
Data Encryption
Multi Core
9.5 GB/Sec
Data Compression
Multi Core
164.8 MB/Sec
Physics
Multi Core
1322 Frames/Sec
Extended Instructions
Multi Core
11 B Matrices/Sec
Single Thread
Multi Core
2.9 GOps/Sec
Show more

Cinebench R23

Single Core
973
Multi Core
7294

Geekbench 5

Single Core
1576
Multi Core
6244

Cinebench 2024

Single Core
96
Multi Core
684

Compared to Other CPU

29%
39%
83%
Better then 29% CPU over the past year
Better then 39% CPU over the past 3 years
Better then 83% CPU

SiliconCat Rating

144
Ranks 144 among Laptop/Mobile CPU on our website
471
Ranks 471 among all CPU on our website
Cinebench R23 Single Core
Ryzen 7 8745HS
AMD, June 2024
1749
Processor U300
Intel, January 2023
1574
Core i9-7980XE
Intel, September 2017
1234
Core i7-6850K
Intel, May 2016
998
Snapdragon X X1-26-100
Qualcomm, January 2025
973
Cinebench R23 Multi Core
Core i9-9920X
Intel, October 2018
14871
Core Ultra 5 225U
Intel, January 2025
12329
Core Ultra 5 335
Intel, January 2026
8863
Snapdragon X X1-26-100
Qualcomm, January 2025
7294
Celeron N3350E
Intel, July 2019
252
Geekbench 6 Single Core
Ryzen 7 7840HS
AMD, October 2023
2265
Core i5-1335U
Intel, January 2023
2192
Snapdragon X X1-26-100
Qualcomm, January 2025
2127
Xeon E-2324G
Intel, September 2021
2035
Ryzen 5 5600G
AMD, April 2021
1942
Geekbench 6 Multi Core
Ryzen 9 5950X
AMD, November 2020
11656
Core i7-12800HE
Intel, January 2022
10904
Snapdragon X X1-26-100
Qualcomm, January 2025
10320
Ryzen 7 5700X3D
AMD, January 2024
9812
Core i9-9920X
Intel, October 2018
9277
Geekbench 5 Single Core
Core i7-1250U
Intel, February 2022
1715
Core i9-13900H
Intel, January 2023
1631
Snapdragon X X1-26-100
Qualcomm, January 2025
1576
Core i7-1195G7
Intel, May 2021
1526
Ryzen 5 PRO 6650U
AMD, April 2022
1468
Geekbench 5 Multi Core
Core 5 120U
Intel, January 2024
6827
Xeon E-2176G
Intel, October 2017
6498
Snapdragon X X1-26-100
Qualcomm, January 2025
6244
EPYC 7513
AMD, March 2021
5908
Ryzen 5 4600GE
AMD, July 2020
5696
Passmark CPU Single Core
Core i7-11850HE
Intel, July 2021
3001
EPYC 9554P
AMD, November 2022
2932
Snapdragon X X1-26-100
Qualcomm, January 2025
2869
Core i5-10500
Intel, April 2020
2805
Xeon W-2245
Intel, October 2019
2739
Passmark CPU Multi Core
Core Ultra 5 125U
Intel, December 2023
17921
Ryzen 7 PRO 5850U
AMD, March 2021
17077
Snapdragon X X1-26-100
Qualcomm, January 2025
16359
Core i5-11260H
Intel, May 2021
15760
Ryzen 7 4750U
AMD, May 2020
15232
Cinebench 2024 Single Core
Snapdragon X Plus X1P-66-100
Qualcomm, September 2024
109
Ryzen 9 8945H
AMD, December 2023
103
Ryzen 7 8745HS
AMD, June 2024
98
Snapdragon X X1-26-100
Qualcomm, January 2025
96
Core 5 120F
Intel, June 2025
88
Cinebench 2024 Multi Core
Ryzen 5 PRO 8600G
AMD, October 2024
778
Snapdragon X2 Plus X2P-42-100
Qualcomm, January 2026
730
Snapdragon X X1-26-100
Qualcomm, January 2025
684
M2
Apple, June 2022
555
M1
Apple, November 2020
444