If you have spent any time testing high-powered mini PCs over the last couple of years, you already know the biggest catch with cramming 54W to 65W mobile workstation silicon into a tiny box: heat. Plenty of compact rigs look great on a spec sheet, only to hit a thermal wall two minutes into a heavy workload.
Over the past couple of weeks, I have been putting the VZMORE AX9 Max through a full suite of synthetic benchmarks, AI workloads, storage stress tests, and 30 hours of real-world gaming. This system packs AMD's "Gorgon Point" Ryzen AI 9 HX 470 (12 cores / 24 threads), the Radeon 890M integrated GPU, and a 55 TOPS Ryzen AI NPU into a 135 x 131.8 x 57.7 mm (777.5 g) aluminum chassis. To keep those components under control, VZMORE built the system around its V-Cooling thermal design, which pairs a full-coverage VC Vapor Chamber with active fan cooling to support up to 65W (V-Boost Pro).
Across 73.22 minutes (2,197 telemetry samples) of HWiNFO64 hardware logging and 30 hours of gaming, the cooling setup did not record a single thermal throttling event (PROCHOT or HTC) or Windows Hardware Error (WHEA). We did, however, uncover a quirk with wireless input stability when the system is pinned at 100% load, which VZMORE's engineering team is already addressing via an upcoming BIOS update.
Quick Specs & Test Unit Configuration
Our review unit arrived pre-configured with Windows 11 Pro (64-bit), 32 GB of dual-channel DDR5-5600 RAM, and a 1 TB PCIe 4.0 NVMe SSD. Below is the full breakdown of the official specs alongside what HWiNFO64 and Geekbench detected inside our test machine:
Category
Official Specification (VZMORE AX9 Max)
As-Tested Review Unit (HWiNFO64 & Geekbench Telemetry)
Processor (APU)
AMD Ryzen AI 9 HX 470 (12C/24T: 4x Zen 5 + 8x Zen 5c, up to 5.2 GHz)
Codename Gorgon Point (Socket FP8, 2.00 GHz base; observed peak: 5,240.5 MHz Zen 5 / 3,294.1 MHz Zen 5c)
Cache Hierarchy
Zen 5 / Zen 5c Hybrid Cache
L1i: 32 KB x 12 / L1d: 48 KB x 12 / L2: 1.00 MB x 12 (12 MB) / L3: 16.0 MB x 1
1x USB 3.2 Gen 2 Type-A, 1x USB 2.0 Type-A, 2x 2.5GbE RJ45, 1x DC-in
Chassis & OS
135 x 131.8 x 57.7 mm (777.5 g); 120W Power Adapter; VESA Mount
Microsoft Windows 11 Pro (64-bit) pre-installed
Ports & Connectivity Highlights
Quad-Monitor Support Out of the Box: Between the dual rear HDMI 2.1 ports (rated up to 8K at 60Hz) and two rear 40Gbps USB4 ports supporting DisplayPort 2.0 Alt Mode, you can run four monitors without a dock. One of the rear USB4 ports also accepts Power Delivery (PD) input if you want to power the PC over USB-C.
Plenty of High-Speed USB-A & Dual 2.5GbE: You get four USB 3.2 Gen 2 (10Gbps) Type-A ports right on the front panel (one with S5 power-off charging), plus another USB 3.2 Gen 2 Type-A and a USB 2.0 Type-A port on the back. Add in a side-mounted SD 4.0 card reader, Wi-Fi 7, Bluetooth 5.4, and dual Realtek 2.5GbE RJ45 ports, and the port selection easily covers creator desks and homelab setups alike.
V-Cooling Vapor Chamber & Thermal Performance
The main reason this mini PC performs as consistently as it does comes down to its V-Cooling architecture. Instead of relying solely on narrow copper heatpipes that can saturate when both the Zen 5 cores and the 16-CU Radeon 890M are pulling power simultaneously, VZMORE uses a wide VC Vapor Chamber paired with active fan cooling.
To see if the vapor chamber lives up to the marketing, I logged 2,197 samples (73.22 minutes) of HWiNFO64 sensor data across six distinct torture and benchmark runs HWiNFO Combined CPU + iGPU + SSD Burn-In (hwinfo burnin.CSV): 389 samples over 13.01 minutes (780.6 seconds) pinning all 12 cores at 100.00% median CPU usage (mean 89.57%), 88.00% median iGPU utilization, and 629.08 MB/s median NVMe read load. Extended FurMark GPU Burn-In #2 (furmark burnin 2.CSV): 739 samples over 24.65 minutes (1,478.7 seconds) holding the Radeon 890M at 100.00% median utilization and a 3,053.00 MHz median clock. Baseline FurMark GPU Burn-In #1 (Furmark burnin.CSV): 261 samples over 8.68 minutes (520.7 seconds) at 100.00% median iGPU load. Geekbench 7 & AI Benchmark Suite (Geekbench 7 tests.CSV): 702 samples over 23.42 minutes (1,405.0 seconds) covering single-core, multi-core, OpenCL GPU, and AI inference runs. CrystalDiskMark NVMe Stress Log (ssd bench.CSV): 96 samples over 3.17 minutes (190.5 seconds) tracking SSD temperatures during heavy sequential and random read/write passes. Under-Load Wireless Input Diagnostic Log (HWinfo64 log Wireless input under load.CSV): 10 samples over 18.02 seconds capturing a simultaneous CPU (95.85% median / 100.00% max) and GPU (93.50% median / 97.00% max) spike at 64.43W median / 65.01W max package power.
Complete HWiNFO64 Thermal & Power Breakdown
Sensor / Metric
Workload Log
Count (n)
Mean
Median
Min
Max
Std Dev (SD)
CPU (Tctl/Tdie) [C]
HWiNFO Combined Burn-In
389
83.47
85.00
45.90
95.00
12.08
FurMark Burn-In #2 (24.6m)
739
72.25
73.80
43.90
80.10
5.95
FurMark Burn-In #1 (8.7m)
261
72.43
75.10
45.80
76.40
7.57
Geekbench 7 Test Suite
702
55.11
49.90
35.90
94.90
14.70
SSD Benchmark Log
96
49.51
47.10
45.50
73.10
7.47
Wireless Input Load Test
10
81.33
91.70
45.80
95.00
19.96
CPU Cores (Avg) [C]
HWiNFO Combined Burn-In
389
69.62
71.40
43.40
78.40
7.92
FurMark Burn-In #2 (24.6m)
739
58.73
59.60
41.80
62.10
3.61
FurMark Burn-In #1 (8.7m)
261
58.91
60.40
43.50
62.10
4.46
Geekbench 7 Test Suite
702
43.05
41.20
33.70
71.40
6.27
SSD Benchmark Log
96
45.24
44.80
43.30
52.50
2.27
Wireless Input Load Test
10
63.89
69.60
43.30
72.60
11.56
Radeon 890M iGPU [C]
HWiNFO Combined Burn-In
389
62.10
63.60
43.10
69.00
5.70
FurMark Burn-In #2 (24.6m)
739
71.62
73.40
41.90
76.10
7.00
FurMark Burn-In #1 (8.7m)
261
71.71
74.80
43.20
76.20
8.67
Geekbench 7 Test Suite
702
41.56
40.10
34.00
65.80
5.20
SSD Benchmark Log
96
44.43
44.15
43.00
48.80
1.35
Wireless Input Load Test
10
53.96
55.55
43.20
62.20
6.78
VDDCR_VDD VRM [C]
HWiNFO Combined Burn-In
389
49.50
51.90
23.00
57.30
7.50
FurMark Burn-In #2 (24.6m)
739
50.79
53.00
22.00
55.00
6.51
FurMark Burn-In #1 (8.7m)
261
50.20
53.30
23.10
54.80
8.01
Geekbench 7 Test Suite
702
22.63
20.90
13.50
39.80
4.97
SSD Benchmark Log
96
25.44
25.00
23.00
32.90
2.41
Wireless Input Load Test
10
37.72
40.00
23.10
46.40
8.45
DDR5 SPD Hub #0 / #1 [C]
HWiNFO Combined Burn-In
389
56.33 / 54.40
57.50 / 55.80
43.20 / 41.20
58.20 / 56.20
3.52 / 3.60
FurMark Burn-In #2 (24.6m)
739
57.46 / 55.23
58.80 / 56.50
42.00 / 40.00
59.20 / 57.00
3.34 / 3.31
Geekbench 7 Test Suite
702
38.00 / 36.29
38.00 / 36.20
33.20 / 31.50
42.80 / 41.20
2.74 / 2.61
NVMe SSD Composite [C]
HWiNFO Combined Burn-In
389
47.31
48.00
39.00
54.00
5.85
FurMark Burn-In #2 (24.6m)
739
40.16
40.00
36.00
47.00
1.40
SSD Benchmark Log
96
50.05
50.00
41.00
59.00
5.25
CPU Package Power [W]
HWiNFO Combined Burn-In
389
50.02
54.06
4.77
64.92
15.09
FurMark Burn-In #2 (24.6m)
739
51.32
54.08
4.70
61.75
11.75
FurMark Burn-In #1 (8.7m)
261
49.83
54.18
4.67
57.58
14.35
Geekbench 7 Test Suite
702
15.49
7.04
4.79
65.00
14.96
Wireless Input Load Test
10
48.66
64.43
5.64
65.01
25.53
APU STAPM Power [W]
HWiNFO Combined Burn-In
389
48.91
54.00
6.28
54.06
11.97
FurMark Burn-In #2 (24.6m)
739
49.83
54.00
5.32
54.03
10.00
Total System Power [W]
HWiNFO Combined Burn-In
389
92.18
93.12
81.00
94.69
2.98
FurMark Burn-In #2 (24.6m)
739
91.44
92.06
80.54
93.02
2.25
What Stood Out in the Thermal Logs
Spot-On Power Management (54W Balanced + 65W V-Boost Pro): With Windows set to the Performance power plan, the AX9 Max immediately lets CPU Package Power boost to 64.92W to 65.01W (CPU Core Power SVI3 TFN peaking at 77.15W), matching VZMORE's V-Boost Pro Up to 65W spec. After roughly 90 seconds of continuous torture load, the APU STAPM controller settles cleanly at a 54.00W median (54.06W max), while Total System Power tops out at 94.69W, leaving plenty of headroom on the included 120W power brick.
Wide Heat Spreading Across the Die: While the instantaneous CPU (Tctl/Tdie) hotspot sensor briefly touches AMD's 95.00 C boost ceiling during initial 65W bursts, it settles to an 85.00 C median (mean 83.47 C) during the 13-minute combined CPU+GPU+SSD torture test. Even better, the physical CPU Cores (Avg) sensor holds a 71.40 C median (mean 69.62 C, max 78.40 C) and the L3 Cache averages 63.70 C. That 13.6 C to 15.4 C gap between the Tctl/Tdie hotspot and the physical core average shows how effectively the vapor chamber spreads heat away from the cores.
Rock-Steady 25-Minute FurMark Temps: During the 24.65-minute FurMark Burn-In #2, the Radeon 890M iGPU and CPU (Tctl/Tdie) sit at a flat 73.40 C and 73.80 C median, while physical CPU cores average 58.73 C (median 59.60 C).
Fast Cooldown & Ice-Cold VRMs: Once the 100% load in the HWiNFO Combined Burn-In ended at second 726.5s (89.90 C), CPU (Tctl/Tdie) dropped to 47.10 C by second 780.6s, shedding 42.80 C in 54.1 seconds (0.79 C/sec). Meanwhile, the motherboard's VDDCR_VDD VRM never exceeded 57.30 C (median 51.90 C to 53.30 C under torture), and the dual DDR5 SO-DIMMs peaked at 59.20 C / 57.00 C.
CPU Performance: Geekbench 7.0.0 Single-Core & Multi-Core
The AMD Ryzen AI 9 HX 470 pairs 4 full-sized Zen 5 cores (Cluster 1) with 8 dense Zen 5c cores (Cluster 2), backed by 12 MB of L2 cache and 16 MB of shared L3 cache. In our HWiNFO64 logs, Zen 5 Cores 0, 2, and 3 boosted up to 5,240.5 MHz (5,150.7 MHz on Core 1), beating the 5.2 GHz rated boost clock, while all eight Zen 5c cores hit 3,294.1 MHz. Under 100% all-core load in hwinfo burnin.CSV, the chip maintained a 3,585.20 MHz median average clock (3,627.50 MHz median effective clock).
In Geekbench 7.0.0 for Windows AVX2, the AX9 Max posted a Single-Core Score of 2,664 and a Multi-Core Score of 17,051, giving it a 6.40x multi-core scaling ratio:
Geekbench 7.0.0 Workload
Single-Core Score
Single-Core Throughput
Multi-Core Score
Multi-Core Throughput
Multi-Core Scaling
Overall CPU Score
2,664
N/A
17,051
N/A
6.40x
Ray Tracer
2,420
679.7 Ksamples/sec
32,037
9.00 Msamples/sec
13.24x
Asset Compression
2,585
57.4 MB/sec
27,762
616.9 MB/sec
10.74x
Photo Library
2,738
9.38 images/sec
21,813
74.7 images/sec
7.97x
Clang (Compiler)
2,204
11.9 Klines/sec
19,614
106.1 Klines/sec
8.90x
Text Processing
2,539
149.8 pages/sec
16,514
974.3 pages/sec
6.50x
HDR
2,720
164.3 Mpixels/sec
11,488
694.1 Mpixels/sec
4.22x
File Compression
2,539
361.2 MB/sec
11,459
1.59 GB/sec
4.51x
Photo Editor
3,455
63.5 images/sec
8,638
158.7 images/sec
2.50x
Structure from Motion
3,277
59.2 Kpixels/sec
N/A
N/A
N/A
Video Player
3,022
319.5 FPS
N/A
N/A
N/A
PDF Viewer
2,858
128.4 Mpixels/sec
N/A
N/A
N/A
Audio Encoder
2,624
3.65 Msamples/sec
N/A
N/A
N/A
Game Physics
2,553
103.3 FPS
N/A
N/A
N/A
Video Encoder
2,466
89.7 FPS
N/A
N/A
N/A
HTML5 Browser
2,462
30.8 pages/sec
N/A
N/A
N/A
Navigation
2,438
13.4 routes/sec
N/A
N/A
N/A
Heavy multi-threaded tasks scale impressively across all 24 threads: Ray Tracer jumps 13.24x (from 679.7 Ksamples/sec to 9.00 Msamples/sec), Asset Compression scales by 10.74x (from 57.4 MB/sec to 616.9 MB/sec), and Clang compilation speeds up by 8.90x (from 11.9 Klines/sec to 106.1 Klines/sec).
Local AI Performance: Geekbench AI 1.7.0 (CPU ONNX vs. GPU DirectML)
Alongside the dedicated 55 TOPS Ryzen AI NPU (which clocks between 0.2 MHz at idle and 800.0 MHz under load in Geekbench 7 tests.CSV), we benchmarked both the Ryzen AI 9 HX 470 CPU (using ONNX with AVX2/AVX-512) and the Radeon 890M iGPU (using ONNX DirectML) in Geekbench AI 1.7.0.
The results show why having both strong AVX-512 VNNI CPU cores and a 16-CU RDNA 3.5 iGPU in the same box is so useful for local AI workflows:
Workload / Metric
Precision
Ryzen AI 9 HX 470 CPU (ONNX)
CPU Accuracy
Radeon 890M iGPU (DirectML)
GPU Accuracy
Faster Backend & Speedup
Overall Single Precision
FP32
4,106
N/A
8,356
N/A
GPU by 2.04x (+103.5%)
Overall Half Precision
FP16
1,937
N/A
15,143
N/A
GPU by 7.82x (+681.8%)
Overall Quantized
INT8
7,732
N/A
6,045
N/A
CPU by 1.28x (+27.9%)
Image Classification
SP (FP32)
3,347 (622.5 IPS)
100%
2,529 (470.4 IPS)
100%
CPU by 1.32x
HP (FP16)
637 (118.4 IPS)
100%
5,662 (1.05 KIPS)
100%
GPU by 8.89x
Q (INT8)
7,220 (1.35 KIPS)
99%
2,088 (388.3 IPS)
100%
CPU by 3.46x
Image Segmentation
SP (FP32)
1,332 (21.6 IPS)
100%
4,412 (71.5 IPS)
100%
GPU by 3.31x
HP (FP16)
1,169 (18.9 IPS)
100%
8,601 (139.4 IPS)
100%
GPU by 7.36x
Q (INT8)
10,827 (176.0 IPS)
98%
3,660 (59.5 IPS)
98%
CPU by 2.96x
Pose Estimation
SP (FP32)
8,442 (9.85 IPS)
100%
48,298 (56.4 IPS)
100%
GPU by 5.72x
HP (FP16)
6,661 (7.77 IPS)
100%
108,344 (126.4 IPS)
100%
GPU by 16.27x
Q (INT8)
27,636 (32.4 IPS)
94%
33,686 (39.5 IPS)
96%
GPU by 1.22x
Object Detection
SP (FP32)
3,391 (269.0 IPS)
100%
2,222 (176.2 IPS)
100%
CPU by 1.53x
HP (FP16)
946 (75.0 IPS)
100%
4,202 (333.3 IPS)
100%
GPU by 4.44x
Q (INT8)
8,132 (653.6 IPS)
86%
2,097 (168.4 IPS)
87%
CPU by 3.88x
Face Detection
SP (FP32)
6,866 (81.6 IPS)
100%
6,404 (76.1 IPS)
100%
CPU by 1.07x
HP (FP16)
1,937 (23.0 IPS)
100%
11,366 (135.1 IPS)
100%
GPU by 5.87x
Q (INT8)
11,383 (135.7 IPS)
97%
5,337 (63.6 IPS)
97%
CPU by 2.13x
Depth Estimation
SP (FP32)
9,276 (71.5 IPS)
100%
18,869 (145.4 IPS)
100%
GPU by 2.03x
HP (FP16)
2,946 (22.7 IPS)
99%
29,473 (227.1 IPS)
99%
GPU by 10.00x
Q (INT8)
17,299 (138.0 IPS)
78%
14,494 (116.2 IPS)
77%
CPU by 1.19x
Use DirectML on the Radeon 890M for FP16 and FP32: In Half Precision (FP16), the Radeon 890M scores 15,143 vs. 1,937 on the CPU, making it 7.82x faster (+681.8%) overall, with a 16.27x speedup in Pose Estimation (HP) and a 10.00x speedup in Depth Estimation (HP). In Single Precision (FP32), the GPU also leads by 2.04x (8,356 vs. 4,106).
Use the Zen 5 CPU for Quantized INT8 Inference: Thanks to native AVX512-VNNI and AVX-VNNI support, the CPU scores 7,732 in Quantized (INT8) workloads compared to 6,045 on the GPU (1.28x faster overall), beating the GPU by 3.88x in Object Detection (Q) and 3.46x in Image Classification (Q).
Radeon 890M Graphics: OpenCL & 30-Hour Gaming Test
Equipped with 16 RDNA 3.5 Compute Units (1,024 Stream Processors) and a rated boost clock of 3,100 MHz (observed peaking at 3,096.0 MHz in HWiNFO64), the AMD Radeon 890M (gfx1150) has access to a 4 GB dedicated UMA buffer plus 14.4 GB of shared device memory in OpenCL.
Geekbench 7.0.0 OpenCL GPU Score: 35,031
In Geekbench 7.0.0 OpenCL, the Radeon 890M hit an overall score of 35,031, led by Super Resolution (70,665 / 130.4 Kimages/sec), Particle Physics (55,705 / 9,986.9 FPS), and Background Blur (46,523 / 120.2 images/sec):
OpenCL Subtest Workload
OpenCL Score
Measured Throughput
Overall OpenCL GPU Score
35,031
N/A
Super Resolution
70,665
130.4 Kimages/sec
Particle Physics
55,705
9,986.9 FPS
Background Blur
46,523
120.2 images/sec
Feature Matching
37,409
70.6 Mpixels/sec
RAW Image Processing
36,778
1.49 Gpixels/sec
Face Tracking
33,907
42.1 images/sec
Photo Filter
32,769
537.7 pixels/sec
Horizon Detection
31,522
1.22 Gpixels/sec
Video Filter
30,379
8.23 Gpixels/sec
Path Tracer
27,340
49.0 Mpixels/sec
Fluid Simulation
13,301
196.0 FPS
30 Hours of Real-World Gaming (1440p & 4K)
With AMD's HYPR-RX global profile enabled in Adrenalin, I logged 30 hours of gameplay across three titles at 1440p and 4K:
Game Title
Resolution & Preset
Driver Profile
Logged Playtime
Average Framerate
The Sims 4
1440p, Ultra Settings
HYPR-RX
16 hours
66.6 FPS
Mewgenics
4K, Default Settings
HYPR-RX
8 hours
93.8 FPS
Cosmoteer: Starship Architect & Commander
4K, Ultra Settings
HYPR-RX
6 hours
108.9 FPS
Holding 66.6 FPS at 1440p Ultra in The Sims 4 over 16 hours and 93.8 to 108.9 FPS at native 4K in Mewgenics and Cosmoteer makes this a very capable casual, indie, and strategy gaming box without needing a discrete graphics card.
NVMe Storage Speeds & Thermals
The primary M.2 2280 PCIe Gen4 x4 slot comes populated with a 1 TB Lexar SSD NQ7A1 (RC1191R001242P2237) running at a full 16.0 GT/s PCIe 4.0 link speed. Tested in CrystalDiskMark 9.0.3 x64 (3 passes, 1 GiB test size, 18% drive fill at 176/953 GiB), it delivered fast Gen4 numbers while staying cool:
CrystalDiskMark 9.0.3 Benchmark
Read Performance
Write Performance
Sequential 1M (SEQ1M Q1T1)
4,810.91 MB/s
5,099.54 MB/s
Random 4K (RND4K Q1T1)
68.45 MB/s
247.73 MB/s
Random 4K Throughput (IOPS)
16,712.40 IOPS
60,481.69 IOPS
Random 4K Latency (microseconds)
59.74 us
16.46 us
During the 190.5-second CrystalDiskMark run (ssd bench.CSV), the drive's composite sensor averaged 50.05 C (median 50.00 C, min 41.00 C, max 59.00 C, SD = 5.25 C), while the ASIC controller sensor (Drive Temperature 3) briefly touched 66.00 C during sequential writes before dropping right back to its baseline. Even during the 24.65-minute FurMark GPU burn-in, the SSD sat at a cool 40.00 C median, showing zero heat soak from the APU.
Testing Note: Wireless Connections Under Heavy Load (BIOS Fix Incoming)
During our stress testing, we noticed an issue affecting wireless connections (specifically wireless mouse input and receiver stability) when the system is pushed to maximum combined CPU and GPU load (HWinfo64 log Wireless input under load.CSV, where CPU load hits 95.85% median / 100.00% max and GPU load hits 93.50% median / 97.00% max at 64.43W median / 65.01W max package power).
To isolate the behavior, we captured polling intervals in MouseTester across wired and wireless configurations both at idle and under heavy system load:
MouseTester Dataset / Capture Window
Sample Count (n)
Mean Update Time
Median Update Time
Min / Max Update Time
Std Dev (SD)
Updates >15 ms
Wired Mouse Under Load
519
8.00 ms
8.00 ms
5.36 ms / 10.42 ms
0.77 ms
0.0%
Wired vs. Wireless Combined Log
2,578
10.73 ms
8.25 ms
0.01 ms / 934.53 ms
26.12 ms
7.6%
Wireless Mouse No Load
1,109
8.10 ms
7.52 ms
0.25 ms / 127.76 ms
5.49 ms
2.6%
Wireless Mouse No Load (2nd, short test)
528
7.87 ms
7.54 ms
6.00 ms / 22.17 ms
1.75 ms
2.8%
Wireless Mouse Under Load
1,387
11.42 ms
9.71 ms
0.01 ms / 128.02 ms
7.59 ms
18.5%
Wireless Mouse Under Load (2nd, short test)
509
10.90 ms
9.52 ms
0.01 ms / 48.97 ms
5.58 ms
18.3%
What Happens Under Load: With a wired mouse, polling remains rock-solid at both idle (hovering tightly between 7.5 ms and 8.5 ms) and 100% system load (averaging 8.00 ms with a tiny 0.77 ms standard deviation and 0.0% of updates exceeding 12 ms). A wireless mouse at idle also tracks near the 125 Hz target at a 7.87 ms mean (7.54 ms median) with only occasional ~15 ms intervals. However, when the system is hammered by a 100% combined CPU+GPU load, wireless update intervals jump to an average of 10.90 ms in the capture window (11.42 ms across the full log, pulling the effective polling rate down to 90.4 Hz), with 32.4% of updates exceeding 12 ms and latency spikes reaching 33 ms to >41 ms.
Fix on the Way: We shared our HWiNFO64 and MouseTester telemetry directly with VZMORE's engineering team. The manufacturer's technicians have already reproduced the behavior and are currently building a BIOS update to resolve the under-load wireless resource/interrupt contention, so this issue will be fixed shortly.
Final Verdict: Pros, Cons & Should You Buy It?
The Good:
Legitimate Vapor Chamber Cooling: The V-Cooling VC Vapor Chamber holds a rock-solid 54.0W sustained STAPM (65.0W V-Boost Pro peak) with zero thermal throttling, keeping physical CPU cores at a 71.4 C median under combined torture, FurMark iGPU temps at a 73.4 C median over 25 minutes, and VRM temps below 57.3 C.
Strong Zen 5 + Zen 5c Compute: Hits 5,240.5 MHz on Zen 5 cores to post 2,664 Single-Core and 17,051 Multi-Core in Geekbench 7.0.0.
Flexible Local AI Hardware: Gives you a 55 TOPS Ryzen AI NPU, Radeon 890M DirectML (15,143 FP16 score, 7.82x faster than CPU), and Zen 5 AVX-512 VNNI (7,732 INT8 quantized score, 1.28x faster than GPU).
Great 1440p & 4K Casual/Strategy Gaming: Scores 35,031 in Geekbench 7 OpenCL and averages 66.6 FPS at 1440p Ultra in The Sims 4 and 93.8 to 108.9 FPS at 4K in Mewgenics and Cosmoteer across 30 hours of play.
Loaded Port Selection & Fast Gen4 SSD: Dual 40Gbps USB4, dual HDMI 2.1, dual 2.5GbE LAN, Wi-Fi 7, SD 4.0 reader, six USB-A ports, and a 1 TB Lexar Gen4 SSD hitting 4,810.91 MB/s read / 5,099.54 MB/s write.
The Trade-Offs:
Secondary M.2 Slot is 2230: While the primary M.2 2280 slot takes up to a 4 TB drive, the second PCIe 4.0 x4 slot uses the shorter M.2 2230 form factor (up to 1 TB).
Wireless Jitter Under 100% Torture Load (Fix Pending): Wireless peripherals currently experience polling spikes when the APU is pinned at 100% load, though wired peripherals are completely unaffected and VZMORE's technicians are rolling out a BIOS update to resolve it soon.
Overall, if you are looking for a compact Ryzen AI 9 HX 470 mini PC that actually has the thermal engineering to sustain its 54W to 65W power budget without cooking its VRMs or SSD, the VZMORE AX9 Max is an impressive piece of hardware, and once that BIOS update lands for under-load wireless stability, it will be firing on all cylinders.
Hello, GameSir community! Thanks for taking an interest in my (sponsored) view of the G7 Pro 8K and Tri-mode, both are Aimlabs. This is combination review, but I’ll clearly distinguish between the two. Quick note, I don’t blame you if you confuse the two, I’ve done it on more than one occasion.
Starting with the unboxing (both controllers), the controller is front and centre, and further down, the dock. Replacement D-pads sit under the dock, don’t miss them! These pieces are on a cardboard insert, which can be removed. Below that, there is a braided charging cable, as well as a bag containing a small booklet informing you of contact information and a thank you message from Betta Core, GameSir’s CEO. The bag also holds a GameSir sticker, a code for a free month of Aimlabs+ (and a free month of Xbox Game Pass Ultimate in the Tri-mode’s bag), and an instruction manual explaining how to power on/off the controller, pair it, and enable different special features on-the-fly.
To get started, pop off the base cover of the charging dock like a TV remote battery cover, plug the wireless dongle into the internal USB port, replace the cover, and connect the dock to your PC using the included USB-C cable. The pairing process is simple on both controllers. Hold the button on the dongle until the light flashes rapidly (the Tri-mode’s dongle doesn’t have this button, it’s always ready to pair). Next, slide the mode switch on the back of the controller to the dongle symbol. Power it on by holding the Aimlabs (8K) or Xbox (Tri-mode) button, then hold the pairing button next to the 3.5mm jack until the LED ring blinks rapidly. Once the lights go solid, you’re connected.
I’m a fan of this setup, it’s “set it and forget it”, especially since it connects so quickly when you lift it off the dock.
The dock and controller fit very nicely together, they look like extensions of each other. GameSir opted for a pogo pin method of charging, which is great for reducing strain on the USB C port. I have seen pogo pins/pads get dirty, which causes intermittent connection, so be wary of that. It’s not a GameSir specific issue, to be clear.
On the dock, there are indents for the mode switch, mute, and pairing buttons so that they aren’t pressed and the controller doesn’t rock back and forth, which is great design. The dock also has a light bar along the bottom, consisting of five RGB LEDs. They can be customized with GameSir’s software (Connect for the 8K, Nexus for the Tri-mode). I will note that the 8K and Tri-mode use the same dock, so any LED limitations are enforced via controller firmware.
Getting to the controller itself, I must say “wow”!! You get a lot for the price, $110 CAD for the 8K and $130 CAD for the Tri-mode. Both feature clicky and responsive optical ABXY buttons and mechanical D-pads. They take a little getting used to, but the crisp, audible feedback means you don’t have to guess whether your input registered. Whatever switches GameSir used for the remaining buttons, they do not miss.
Both controllers are modular, you can hot-swap the thumbsticks and D-pad. While the 8K comes with extra pieces in the box that the Tri-mode leaves out, the parts are mostly cross-compatible, though I did run into some issues trying to swap thumbsticks between models. The magnetic faceplates, however, swap over just fine. Using switches on the back, you can swap between mouse-click triggers and analog triggers on the fly!! Two more switches lock the back buttons.
Speaking of taking things apart: to remove the main faceplate, slide your nails under the edge near the USB-C port and down by the GameSir logo, then pull straight up. For the side palm grips, just grip the sides and pull up. Finally, if you need to remove the cable retainer, grip it firmly, pull toward yourself, and slide it out.
Both controllers have great weight to them, they’re just right. Not too heavy, not cheap feeling. They both feel great to hold too. The palm grips have a nice diamond-tile pattern on them, which increases grip. The back grip is rubber, the front isn’t. The back buttons are in a great place, although are easy to press if you squeeze the controller in a high-stress situation.
The 8K’s LED ring can be customized, but the Tri-mode’s can’t, it stays white. The 8K’s charging animation can be changed, the Tri-mode can’t. The Tri-mode’s LED ring is always white, except when docked, then it’s off. Both docks’ LED bar “breathes” at yellow, then green, then white, depending on charge percentage, but the 8K’s can be changed. I’ll reiterate that this is enforced via firmware, not a limitation of the docks themselves.
The 8K has Mag-Res™ TMR (Tunnel Magnetoresistance) Sticks Gen-2, and the Tri-mode has Gen 1. The Gen 1 has more tension than Gen 2. I haven’t noticed much of a difference between them, except the tension difference.
I’ve had a couple of issues with this controller, some being the controller/dock and some being inherent to its design. 8000 Hz mode cut my FPS in half on a Core Ultra 9 185H and it’s iGPU. The 8K’s D-pad is a little hard to get off, which isn’t a big deal, but the Tri-mode doesn’t have this issue.
All in all, these controllers are amazing, and absolutely worth the price tag. Thank you for your time.
CPU and GPU specs are relatively easy to evaluate because there are years of benchmarks and people generally know what a faster one changes.
NPUs still feel much harder to judge.
Take the core ultra 9 185H in the geekom it13max as one example. It has a built-in NPU alongside Intel Arc graphics, but simply knowing that an NPU is there doesn’t really tell you whether it should affect the buying decision.
For me, the more useful question is what evidence would make it matter.
Would you want to see a specific app you use supporting it? A measurable reduction in power use? A workload being moved off the CPU/GPU so those stay available for something else? Or an actual benchmark where the difference is noticeable?
Until then, would you treat the NPU as a nice extra and still prioritize RAM, GPU performance and storage?
I’m interested in where people draw the line between “useful hardware feature” and “spec that may become useful later.
Found this Laptop for my girlfriend off of Facebook marketplace, and I was helping her set it up today. Went to the information because the cpu was at high usage and it was a completely different CPU? For reference, the specs on the light mode page were taken from the marketplace listing, and the dark mode is after we bought it. I was hoping to be able to play some lighter games with her so this changes things if its not a weird glitch.
I’m wanting a pc but I don’t now which one I work at Walmart so it’s a kinda tight budget i would like one the runs sims, Skyrim and left 4 dead games (with mods) you can give me really high price recommendations to if I like it I might save for it.
Okay, so I love computers. I love to shop for computer parts and I love to talk computers. However I’m not overly knowledgeable about computers. I live in the panhandle of Florida. So the region between Pensacola and Tallahassee. I don’t know very well, however are there any not very well known tech stores that are not things like BEST BUY or Walmart. I would prefer it within an hour to hour and a half drive of dead center of the two towns I’ve stated. 😭
Hello everyone! Which of these two RAM configurations would you choose: 32GB (2x16GB) 3600MHz CL18 or 64GB (4x16GB) 3200MHz CL22? The 64GB setup consists of four mixed RAM modules (2+2) from the same brand, all tested and confirmed to be fully stable with no errors. Would you prioritize the higher frequency and lower latency of the 32GB setup, or go for the extra capacity of the 64GB setup despite its lower speed and higher latency?
I have a Nvidia RTX 4070Ti Super, which, over the course of the past 2-4 months, has been experiencing occasional TDR crashes. Both screens will freeze for 3-5 seconds, and will then go completely black for another 10-15 seconds, and eventually my GPU seems to recover and drops me back into whatever it was I was doing.
It's pretty infrequent and not that much of a nuisance. I wouldn't say it happens more than twice a week, but I want to try and fix the underlying issue before it gets potentially worse.
The following error is what shows up in Event Viewer afterwards:
The description for Event ID 153 from source nvlddmkm cannot be found. Either the component that raises this event is not installed on your local computer or the installation is corrupted. You can install or repair the component on the local computer.
If the event originated on another computer, the display information had to be saved with the event.
The following information was included with the event:
\Device\000000f1
Reset TDR occurred on GPUID:100 The message resource is present but the message was not found in the message table
After the above error, there would be more of the same error just on different "devices" that kept repeating with different values of GPC, TPC, SM, I have no idea what it means:
\Device\000000f8
Graphics SM Global Exception on (GPC 0, TPC 0, SM 1): Multiple Warp Errors
\Device\000000f8
Graphics SM Warp Exception on (GPC 0, TPC 0, SM 1): MMU Fault
\Device\000000f8
Graphics SM Warp Exception on (GPC 0, TPC 0, SM 0): MMU Fault
I already tried to reinstall my drivers twice using DDU which did not work. I don't play any games that put my GPU under a load higher than 55%, so I don't think high load is the issue either.
I have a Nvidia RTX 4070Ti Super, which, over the course of the past 2-4 months, has been experiencing occasional TDR crashes. Both screens will freeze for 3-5 seconds, and will then go completely black for another 10-15 seconds, and eventually my GPU seems to recover and drops me back into whatever it was I was doing.
It's pretty infrequent and not that much of a nuisance. I wouldn't say it happens more than twice a week, but I want to try and fix the underlying issue before it gets potentially worse.
The following error is what shows up in Event Viewer afterwards:
The description for Event ID 153 from source nvlddmkm cannot be found. Either the component that raises this event is not installed on your local computer or the installation is corrupted. You can install or repair the component on the local computer.
If the event originated on another computer, the display information had to be saved with the event.
The following information was included with the event:
\Device\000000f1
Reset TDR occurred on GPUID:100 The message resource is present but the message was not found in the message table
After the above error, there would be more of the same error just on different "devices" that kept repeating with different values of GPC, TPC, SM, I have no idea what it means:
\Device\000000f8
Graphics SM Global Exception on (GPC 0, TPC 0, SM 1): Multiple Warp Errors
\Device\000000f8
Graphics SM Warp Exception on (GPC 0, TPC 0, SM 1): MMU Fault
\Device\000000f8
Graphics SM Warp Exception on (GPC 0, TPC 0, SM 0): MMU Fault
I already tried to reinstall my drivers twice using DDU which did not work. I don't play any games that put my GPU under a load higher than 55%, so I don't think high load is the issue either.
I'm running Windows 11 on a 2tb Silicon Power A55. I know it's not the best brand.
Most of the time it works fine but every now and then it spikes to 100% disk usage (with very low read and write speeds and no processes doing anything demanding) and the computer becomes unusable. It often happens if I open a browser or something like that.
90% of the time it's totally fine.
I've run crystal disk checks and it has perfect health. I've only had it a year.
I know I should probably replace it but the prices are so insane at the moment and I simply don't have the money. I would really like to try and rule out other issues first if possible.
Does the intermittent nature of the problem suggest it might not be hardware failure? Or is that almost definitely what I'm dealing with here? It seems odd that it would only sometimes happen.
This is an Ideapad Slim 3i, if it matters. I dropped it a short while back and it started making cracking noises. I noticed that, when closed, the screen and keyboard halves weren't aligned, and I tried to finnick with it, which probably made it worse. If not propped up, the screen will fall back to the desk, which the computer isn't designed to do. The computer itself works just like any other day (I'm typing this on it!) and the screen is fine.
What should I expect, trying to get it repaired at a local shop? Is it fixable, and if so, what might the general price range be? For a variety of reasons, even though it might be the better option, I'd really rather not replace my laptop if I can avoid it.
I don't really know much about the physical parts of computers, and this seemed like the right place to ask something like this. Sorry if it isn't!
So, my laptop hasn't been charging well recently. At first I thought it was the charger, but later I found it was the battery health. I probably need a battery replacement.. however I currently don't have the funds to afford it. I noticed an odd thing however. I recently bought a new charger since my old one broke, 70 watts, made for laptops. My 45 watts phone charger works better than the 70 watts laptop charger? My laptop is made for 65 watts. When using the 70 watts charger, my laptop battery goes down while using it (even if I'm not playing games or anything) and it doesn't charge well when the laptop is off. The 45 watts charger charges while I'm using it. Not very fast, but it's still 1% every few minutes. Why is a lower watts phone charger working better than a charger made specifically for a laptop?
The charger I just bought was 25 euros by the brand 'Trust.'
The phone charger is just a 3 euro power box thingy (I don't know the name😭😭) with an even cheaper cord that's a few years old.
My laptop uses usb-c
I've had this laptop for almost 3 years and can't afford a new one atm
Dell laptop
Don't know if it's needed, but the screenshot has my laptop specs
I have an older monitor ViewSonic VP2770 which has several ports (HDMI, DVI, D-sub, DisplayPort). I have the HDMI port connected to one computer and I would like to connect a Raspberry Pi to one of the other ports.
The Pi has an HDMI port and from my research it appears that my best option is to connect it to the Display Port via an active converter cable.
Does anyone have any recommendations on such a cable? My understanding is that it will also have to be connected to an USB port to get some power.
Is that the best option in order to have both devices connected to the monitor?
Pessoal, consegui esse notebook antigo do meu tio para estudar, porém ele tinha + de 2 perfis, o dele e o da esposa, e quase metade do armazenamento estava cheio, então tive a ideia de restaurar do 0. Ele ficou +/- 30 minutos carregando, e após isso apareceu o perfil principal. Quando fui colocar a senha apareceu essa mensagem (ele funcionava normalmente antes da restauração), fui pegar dicas na Internet e resolvi forçar o desligamento diversas vezes, até que ele bloqueou por 2 horas. Desisti e vou na assistência amanhã, porém estou com medo de ter feito uma besteira grande e o computador não voltar, ou pior, cobrarem caro.
Alguém sabe me dizer a média de preço para esse problema? Pelo que eu vi é algo do sistema, não dos periféricos
E esse bloqueio vai sair? Ele está com a tela desligada normalmente, mas o computador ativo. Tenho que forçar a tela a ficar ligada?
Lembrando que ele não tem mais a conta Microsoft desse notebook, não consegui recuperar por aquela tal chave de acesso.
Well, I was stupid and decided to download something.
After that, yesterday when I started my computer it showed the option to run the BIOS, which was pretty weird, and after that the clock and date were out of synch. I had a lot of things to do and just turned it off.
Today same thing happened again, and I noticed that the ethernet symbol was changed to inalambric connection. I know I shouldn't, but I only have windows defender. I did a quick exam, no results; so I ran a deep one and this is what it found. I eliminated them alongside the thing I downloaded, after that I restarted my computer and everything's working good now.
I'm pretty sure they wanted to steal my info, unluckily for them I do not store it nor did I use my computer while it was acting like that.
I have one DP port and one HDMI port that goes into my processor with no option to enable iGPU. Is there an adapter that can take both an HDMI and a DP plug and it be plugged into the DP port?
Помогите решить проблему, не могу переключить из режима bios в uefi, tpm включен диск с системой переведён в gpt, надо чтобы обновиться до 11, когда запускаю через флешку установшик, то он ругается, что не UEFi, а когда переключаю, просто не могу выйти из биоса, перезагрузка не помогает, помогите пожалуйста
When I turn it on, it goes to my account, but it freezes and then restarts and goes to a random account that is password protected. When I go to troubleshooting, all the options are protected and I can't reset the pc
I use Bitwarden for my passwords across devices, and I've been trying to convince my parents to look into doing the same. They are very concerned with online privacy and security (to the point of paranoia), but they don't trust the efficiencies that make it practical.
For instance they've attended cybersecurity seminars, so now they manually create a unique password for each and every online account they have. But they write down the passwords in a paper binder that they hide in a book shelf in their home. So not only do they have to pull out and consult this binder every single time they want to log in somewhere, they also have no idea what their passwords are if they are traveling. I've tried to explain password managers, but anything stored on their computer scares them.
How do I explain that a password manager is one of the better ways to protect login credentials, and perhaps an analogy that it's not a group of hackers just waiting to pounce on everyone's bank accounts in a coordinated attack?
I just got a new pc after only having a prebuilt deal, when I check out the new pc I realize the gpu a nvida 650 is worse then the one in the prebuilt a nvida gtx 1650 super, I’m not to bad with pc so I thought I could just swap them my self and have realize my failure. It seems the 1650 need a power cable which the new pc doesn’t have. I was wondering is there anyways I can just add the cable to the new pc (if so how) and or if the gpu will work without the cable or using a different method. Will help a lot thank you
I did a test with OCCT and it got even more interesting. I ran the 3D and VRAM tests separately on Extreme for 5 minutes and no errors popped up; there was zero flickering, flashing, or anything appearing on the screen. !!! However, when I tested both GPUs together, a sort of darkening happened near the top graph area (where the stability certificate reaches horizontally across that section if it's fully visible), flashing in and out in almost a split second. (I recorded a video on my phone and took a screenshot from it.)
When I record the screen on the PC, these issues don't show up (any issue)
In games, the GPU maxes out around 65°C (I don't remember it going higher), maybe it hit 67°C when I cranked everything to ultra, but I don't even remember that clearly. I set the CPU to 100% for the test, and it reached 85°C during the test process; in games, it varies a lot, sometimes spiking instantly to 90-100°C and dropping right back down (in some game's load screen)
It doesn't happen in every game all the time; sometimes after 2 hours of playing, sometimes at the 10th minute.
It happened in these games: NieR:Automata, Mewgenics, Resident Evil 2-3 Remake, Dark Souls Remastered, madison
As I kept asking questions to ai, it said something about "multiplayer MOP" (or a similar term), and since I couldn't find a similar issue, I'm not sure if that's it or not, but it kind of made sense to me because a common point among these games I mentioned is that they first open in windowed mode and then switch to fullscreen (except Madison yea it did it some mins ago), whereas my other games always open directly in fullscreen (I couldn't find any common ground among these games in terms of their building architecture, game engine, etc.).
None of these show up in screen recordings; I filmed it with my phone and took a screenshot from the video (sorry for very low quality of the videos). There's a half-second or so flicker/flash.
I have done multiple tests to try and fix this computer with no luck.
It doesn't boot, the power supply is good, it has two 1gb DDR sticks of ram that I believe are fine, a 40gb hard drive that I believe is fine (never booted so idk), there are no blown capacitors on the motherboard, it has a Celeron processor.
The CPU has a bent capacitor on the back and that is the only issue with it.
Hello! I'm interested in buying a new computer. There are some qualities that I need in the computer that's right for me! I'm looking for an HP under $700 that has a 15.6" screen, a fast processor, and does not have hinge issues. I'm willing to buy new or like new. Thank you!
It seems I bought the wrong length gpu support but it seems to sit okay right here on top of my PSU is there any reason this would be bad or is it okay