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The notorious crypto scammer behind the Cryptsy and Altilly exit scams has resurfaced under a new identity. This time, he operated as “Karl” from Xeggex, another fraudulent exchange that has now collapsed. Thanks to the efforts of the crypto community, he appears to have finally been tracked down—despite the FBI and U.S. authorities failing to bring him to justice.
Paul Vernon, also known as "Michael O’Sullivan" or Karl, has a long history of crypto fraud:
Xeggex started as a seemingly legitimate exchange, offering free listings to attract users. However, things took a turn when:
Now, Vernon is erasing traces of himself.
Investigators have located his mansion in Dalian, China. He is reportedly using fake passports from Ecuador and Vanuatu under the name Michael O’Sullivan. The FBI and U.S. Marshals have been informed, and discussions with U.S. authorities are underway.
🔗 Full Investigation & Evidence (Live Updates):
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The fight against crypto fraud continues—let’s make sure Vernon doesn’t escape justice again. This time we cannot let him escape and continue the cycle of fraud and theft without punishment, destroying the lives of many people.
All but one of the 17 charges against Vernon carry maximum prison sentences of 20 years, according to the indictment, which has been embedded at the end of this article.
miaminewtimes.com/news/cryptsy-paul-vernon-stole-millions-cryptocurrency-13799886
Compact, efficient, durable, and excellent value for money; In recent years, integrated GPUs (iGPUs) have made significant strides, thanks to advancements in semiconductor manufacturing and memory technology. Companies like Apple, Intel, and AMD have pushed the boundaries of iGPU performance, driven by:
Apple has taken a bold approach, dedicating significant silicon real estate and employing high-bandwidth memory (8 memory channels, 256/196-bit bus) to achieve performance levels comparable to mid-range dedicated GPUs (dGPUs) like the NVIDIA GeForce RTX 4070 or AMD Radeon RX 7800XT. However, this approach comes at a high cost, exceeding even the most expensive mobile dGPUs (like the NVIDIA GeForce RTX 4090 Mobile). Furthermore, Apple's ecosystem limitations restrict flexibility and customization compared to Windows systems. It won't be everyone's cup of tea.
Intel and AMD, targeting a broader market, focus on more accessible solutions ranging from budget-friendly handhelds to premium laptops. This necessitates a more balanced approach, limiting the use of expensive, high-bandwidth memory configurations. Currently, they primarily rely on dual-channel LPDDR5X with up to 8000MHz, resulting in a theoretical maximum bandwidth of around 128 GB/s – comparable to a dGPU like the AMD Radeon RX 6500 XT. This bandwidth limitation restricts the performance potential of iGPUs with more than a few hundred shaders. For example, AMD iGPU with 16 compute units (RX 890M) may not deliver the expected performance due to insufficient bandwidth.
LPDDR6 promises to revolutionize iGPU performance. With a single CAMM2 LPDDR6 module offering a 192-bit bus, theoretical bandwidth can reach approximately 322 GB/s:
This represents a 2.5x improvement in theoretical bandwidth, potentially enabling iGPUs in mainstream notebooks and handhelds to rival popular dGPUs like the NVIDIA GeForce RTX 4060 or AMD Radeon RX 7600XT. The technology behind it;
The JEDEC JC-45 Committee is actively developing two groundbreaking memory module technologies: a new Tall MRDIMM form factor and a next-generation CAMM module for LPDDR6.
The Tall MRDIMM aims to significantly increase memory bandwidth and capacity by allowing for twice the number of DRAM single-die packages on the module without requiring 3D stacking. This innovative approach leverages a taller form factor while maintaining the existing DRAM package.
Complementing this, JC-45 is developing a cutting-edge CAMM module specifically designed for LPDDR6 operation at speeds exceeding 14.4 GT/s. This advanced module will feature a 24-bit subchannel, a 48-bit channel, and a connector array.
Both these projects are crucial for advancing memory technology and are currently under development within the JC-45 Committee. JEDEC strongly encourages industry participation to shape the future of memory standards. Membership provides valuable benefits, including access to pre-publication proposals and early insights into critical projects like MRDIMM and the next-generation CAMM.
Source: JEDEC Unveils Plans
Tech Advancements:
Dell's development of the CAMM memory spec, donated to the JEDEC memory standard committee, laid the groundwork for innovations seen in the ThinkPad P1 Gen 7. The CAMM spec aims to shrink standard memory form factors while optimizing communication pathways between memory and host systems, leading to improved performance and efficiency. Third-party manufacturers like Adata have already demonstrated modules following the CAMM spec, with Samsung recently unveiling its initial CAMM-based products, signaling a new era in memory technology.
Lenovo Unveils ThinkPad P1 Gen 7: A Leap Forward in Laptop Innovation
In recent developments reported by TrendForce, the landscape of export controls has undergone a significant expansion, encompassing not only previously restricted AI chips from industry giants NVIDIA and AMD but also their forthcoming next-generation successors. Notable additions to the list include NVIDIA's H200, B100, B200, GB200, and AMD's MI350 series, extending the scope beyond the previously known NVIDIA A100/H100, AMD MI250/300 series, NVIDIA A800, H800, L40, L40S, and RTX 4090.
In response to these regulatory changes, manufacturers in the High-Performance Computing (HPC) sector have swiftly adapted by developing products compliant with the new Trade Partnership Program (TPP) and Product Development (PD) standards. Notably, NVIDIA has introduced adjusted versions of their H20, L20, and L2 models, ensuring they remain eligible for export, thus navigating the evolving regulatory landscape.
The revelation of AMD's MI350 series suggests a refresh or potentially a new chip based on the advanced 4nm architecture, slated for launch in the latter half of this year. This underscores the industry's ongoing shift towards more advanced semiconductor technologies. It's worth noting that while the industry appears to be largely stuck at the 4nm node, Apple has made headlines by making the leap to 3nm despite challenges with low yields. This divergence in technological trajectories adds an intriguing dimension to the competitive dynamics within the semiconductor sector, emphasizing the importance of innovation and agility in navigating regulatory and technological landscapes alike.
Source: trendforce.com