UNDERSTANDING THE BITCOIN MINING RIG MARKET

WHATSMINER M30S 94TH

Name: Efficient WHATSMINER M30S 94TH - MiningStore | Bitcoin Mining and Management
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SKU: MIAM30S38W94
Price: 1868.25 USD
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SKU: MIAM30S38W94

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WHATSMINER M30S Features

Maximize your Bitcoin mining efficiency with the powerful WHATSMINER M30S 94TH. Engineered for experienced operators, this robust miner delivers a substantial 94 TH/s hash rate for optimal profitability. Its advanced design ensures reliable performance, making the WHATSMINER M30S 94TH a smart investment for serious mining endeavors. Upgrade your rig with the proven power of the WHATSMINER M30S 94TH.

WHATSMINER M30S 94TH In Depth

The Future of Mining

The WHATSMINER M30S 94TH Series is the latest generation of Asic Miners that are designed with advanced technology, improving operations and ensuring long-term operations for future mining. Industry-Leading Hash Rates, Reaching The next-generation achieves ± 3% TH/s leading the industry through performance. J/TH Power Efficiency. The has a power consumption of ± 5% W and power efficiency of J/TH, further improving the efficiency from its predecessor.

is An application-specific integrated circuit (ASIC) is an integrated circuit (IC) chip customized for a particular use, rather than intended for general-purpose use. For example, a chip designed to run in a digital voice recorder or a high-efficiency Bitcoin miner is an ASIC. Application-specific standard product (ASSP) chips are intermediate between ASICs and industry-standard integrated circuits like the 7400 series or the 4000 series. ASIC chips are typically fabricated using metal-oxide-semiconductor (MOS) technology, as MOS integrated circuit chips.

MicroBT is a manufacturer of cryptocurrency, blockchain, and artificial intelligence computing hardware, and also operates the world’s largest and second-largest Bitcoin mining pools according to the companies website.

As feature sizes for have shrunk and design tools improved over the years, the maximum complexity (and hence functionality) possible in an ASIC has grown from 5,000 logic gates to over 100 million. Modern ASICs often include entire microprocessors, memory blocks including ROM, RAM, EEPROM, flash memory, and other large building blocks. Such an ASIC is often termed an SoC (system-on-chip). Designers of digital ASICs often use a hardware description language (HDL), such as Verilog or VHDL, to describe the functionality of ASICs.

utilizes Field-programmable gate arrays (FPGA) are the modern-day technology for building a breadboard or prototype from standard parts[vague]; programmable logic blocks and programmable interconnects allow the same FPGA to be used in many different applications. For smaller designs or lower production volumes, FPGAs may be more cost-effective than an ASIC design, even in production. The non-recurring engineering (NRE) cost of an ASIC can run into the millions of dollars. Therefore, device manufacturers typically prefer FPGAs for prototyping and devices with low production volume and ASICs for very large production volumes where NRE costs can be amortized across many devices.

Early ASICs used gate array technology. By 1967, Ferrari and InterDesign were manufacturing early bipolar gate arrays. In 1967, Fairchild Semiconductor introduced the Micro matrix family of bipolar diode–transistor logic and transistor-transistor logic arrays.

Complementary metal-oxide-semiconductor (CMOS) technology opened the door to the broad commercialization of gate arrays. The first CMOS gate arrays were developed by Robert Lipp in 1974 for International Microcircuits, Inc.

utilizes a Metal-oxide-semiconductor standard cell technology was introduced by Fairchild and Motorola, under the trade names Micromosaic and Polycell, in the 1970s. This technology was later successfully commercialized by VLSI Technology and LSI Logic.

A successful commercial application of gate array circuitry was found in the low-end 8-bit ZX81 and ZX Spectrum personal computers, introduced in 1981 and 1982. These were used by Sinclair Research essentially as a low-cost I/O solution aimed at handling the computer’s graphics.

Customization occurred by varying a metal interconnect mask. Gate arrays had complexities of up to a few thousand gates; this is now called mid-scale integration. Later versions became more generalized, with different base dies customized by both metal and polysilicon layers. Some base dies also include random-access memory (RAM) elements.

WHATSMINER M30S 94TH Specifications

Algorithm

SHA-256

Power Consumption

3420 W ± 10%

Hashrate

94TH/S

Mineable Coins With WHATSMINER M30S

Bitcoin

Bitcoin Cash

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Techinical Specifications

Manufacturer: MicroBt

Model: WHATSMINER M30S

Hashrate: 94Th

Release Date: Early 2020Th

Dimensions: 390mm(L) x 130mm(W) x 220mm(H)

Weight: 12.5Kg

Noise: 75 db

Power: 3420 W ± 10%

Voltage: 12V

Interface: Ethernet

Temperature: '-5-40 °C

Humidity: %

Warranty: Warranty

WHATSMINER M30S 94TH Details

Introducing the Robust WHATSMINER M30S 94TH for Bitcoin Mining

Unleashing Reliable Bitcoin Mining Power with the WHATSMINER M30S 94TH

The WHATSMINER M30S 94TH stands as a reliable and efficient Bitcoin mining machine, engineered by MicroBT, a well-regarded manufacturer in the cryptocurrency mining hardware sector. This miner is designed to deliver a substantial hash rate, making it a popular choice for both established and growing Bitcoin mining operations. The WHATSMINER M30S 94TH is known for its stable performance and robust build, contributing to consistent Bitcoin mining output.

Year of Release: The WHATSMINER M30S 94TH’s Entry into the Mining Market

The WHATSMINER M30S series, including the WHATSMINER M30S 94TH model, was released in the first half of 2020. This timing is significant as it places the WHATSMINER M30S 94TH within a generation of miners that prioritized both hash rate and energy efficiency as the Bitcoin mining difficulty continued to rise. Understanding the release year helps miners gauge its technological standing relative to newer and older models and assess its long-term viability in the competitive mining landscape.

Building on Innovation: Upgrades from Earlier Whatsminer Models

Increased Hash Rate for Enhanced Mining Potential

The WHATSMINER M30S 94TH represented a notable step up in hash rate compared to earlier Whatsminer models such as the M20 series. While the M20 series offered various hash rate configurations, the M30S 94TH typically provided a significantly higher output, reaching around 94 Terahashes per second (TH/s). This increase in hash rate directly translates to a greater ability to perform the calculations necessary to mine Bitcoin, thereby increasing the miner’s chances of securing block rewards. For mining operators, the WHATSMINER M30S 94TH offered a more powerful tool for competing on the Bitcoin network.

Improved Energy Efficiency for Cost-Effective Operation

A key focus in the development of the WHATSMINER M30S 94TH was enhancing energy efficiency. Measured in Joules per Terahash (J/TH), the M30S 94TH demonstrated improvements over previous generations, consuming less power for each unit of hashing power delivered. This reduction in energy consumption is crucial for lowering operational costs, as electricity is a major expense in Bitcoin mining. The enhanced efficiency of the WHATSMINER M30S 94TH allowed mining operations to achieve a higher hash rate with a more manageable power footprint, contributing to better profitability.

Enhanced Thermal Management for Stable Performance

The WHATSMINER M30S 94TH incorporated advancements in its cooling system to ensure stable operation under high loads. Effective heat dissipation is critical for maintaining the performance and longevity of ASIC miners. The improved thermal management in the M30S 94TH helped prevent overheating, allowing the miner to sustain its high hash rate consistently. This reliability was a significant upgrade over some earlier models that might have been more susceptible to performance throttling due to heat.

Refined Control System and Firmware for Easier Management

The WHATSMINER M30S 94TH typically featured an updated control board and firmware, offering a more stable and user-friendly management experience. These improvements allowed miners to monitor the device’s performance more effectively, adjust settings as needed, and troubleshoot potential issues with greater ease. The refined control system contributed to a smoother and more reliable mining operation, minimizing downtime and maximizing efficiency for users of the WHATSMINER M30S 94TH.

Key Product Specifications of the WHATSMINER M30S 94TH and Their Importance in Bitcoin Mining

Hash Rate: 94 TH/s

The hash rate, measured in Terahashes per second (TH/s), is the fundamental measure of a Bitcoin miner’s processing power. A hash rate of 94 TH/s means the WHATSMINER M30S 94TH can perform 94 trillion SHA-256 calculations every second. This high processing capability directly determines the miner’s ability to compete on the Bitcoin network and increases the likelihood of successfully mining new blocks and earning the associated Bitcoin rewards. The 94 TH/s hash rate of the WHATSMINER M30S 94TH makes it a powerful contributor to a mining operation.

Power Consumption: Approximately 3400W

Power consumption, expressed in Watts (W), indicates the amount of electrical energy the WHATSMINER M30S 94TH requires to operate. With a power consumption of around 3400W, it’s evident that high-performance Bitcoin mining is energy-intensive. Understanding this power requirement is crucial for miners to accurately calculate their electricity costs, which represent a significant portion of their operational expenses. Balancing the high hash rate of the WHATSMINER M30S 94TH with its power consumption is essential for achieving profitable Bitcoin mining.

Power Efficiency: Approximately 36 J/TH

Power efficiency, measured in Joules per Terahash (J/TH), is a critical metric that reflects how effectively a miner converts electrical energy into hashing power. The WHATSMINER M30S 94TH has a power efficiency of approximately 36 J/TH, indicating a relatively efficient design for its generation. A lower J/TH value is desirable as it means the miner consumes less energy for each unit of hashing power delivered, leading to lower electricity costs per Bitcoin mined and improved overall profitability. The power efficiency of the WHATSMINER M30S 94TH was a significant factor in its popularity.

Cooling System: Air-Cooled with High-Speed Fans

The WHATSMINER M30S 94TH utilizes an air-cooling system, typically involving multiple high-speed fans, to dissipate the heat generated by its ASIC chips during operation. Effective cooling is vital for maintaining the miner’s optimal operating temperature, preventing performance degradation, and extending its lifespan. The robust air-cooling system of the WHATSMINER M30S 94TH is designed to handle the thermal output associated with its high hash rate, ensuring stable and reliable operation under continuous use, which is crucial for maximizing mining uptime.

Noise Level: Approximately 75 dB

The noise level, measured in decibels (dB), indicates the sound produced by the miner during operation, primarily from its cooling fans. The WHATSMINER M30S 94TH typically operates at a noise level of around 75 dB, which is characteristic of high-performance air-cooled ASIC miners. This level of noise can be significant and is an important consideration for miners when selecting a location for their equipment. Proper soundproofing or deployment in dedicated mining facilities is often necessary to mitigate noise pollution. While noise level doesn’t directly impact mining performance, it is a practical factor for operational comfort and regulatory compliance.

Chip Type: Custom ASIC (Likely 8nm or similar)

The WHATSMINER M30S 94TH is powered by custom-designed Application-Specific Integrated Circuit (ASIC) chips. These chips are specifically engineered for the SHA-256 algorithm used by the Bitcoin network. As a miner released in 2020, it likely utilizes ASIC chips based on an 8nm or similar process node technology. These advanced chips are significantly more efficient at Bitcoin mining compared to general-purpose processors (CPUs) or graphics processing units (GPUs), enabling the high hash rate and relatively good power efficiency of the WHATSMINER M30S 94TH.

Operating Temperature: -5 – 40 °C

The operating temperature range specifies the environmental conditions under which the WHATSMINER M30S 94TH is designed to function optimally. A typical range of -5 to 40 °C highlights the need for a controlled environment to ensure stable and efficient operation. Extreme temperatures can negatively impact the miner’s performance and potentially cause hardware damage. Maintaining the WHATSMINER M30S 94TH within its recommended operating temperature range is crucial for its reliability and longevity, often requiring careful management of ventilation and cooling in the mining facility.

Connectivity: Ethernet

The WHATSMINER M30S 94TH connects to the network via an Ethernet port. A stable and reliable network connection is essential for Bitcoin mining, as the miner needs to communicate continuously with mining pools and the Bitcoin network to receive work and submit results. Ethernet connections provide the necessary bandwidth and stability for uninterrupted mining operations, ensuring that the WHATSMINER M30S 94TH can effectively contribute its hashing power and receive rewards for its efforts.

Dimensions and Weight: 486 x 388 x 265 mm, 12.5 kg

The physical dimensions and weight of the WHATSMINER M30S 94TH are important considerations for setting up and managing a mining operation, especially when deploying multiple units. Its dimensions of 486 x 388 x 265 mm and a weight of 12.5 kg affect factors such as rack space requirements, transportation logistics, and overall facility planning. Miners need to take these physical attributes into account when designing their mining infrastructure to ensure efficient deployment and management of the WHATSMINER M30S 94TH.

The Importance of Specifications for Successful Bitcoin Mining

A thorough understanding of the WHATSMINER M30S 94TH’s specifications is crucial for achieving success in Bitcoin mining. The hash rate directly determines the potential for revenue generation, while power consumption dictates the operational costs. The power efficiency of the WHATSMINER M30S 94TH strikes a balance between these two critical factors. The cooling system ensures the miner’s stability and longevity, and the connectivity ensures its effective participation in the mining network. By carefully evaluating these specifications, miners can make informed decisions about deploying the WHATSMINER M30S 94TH and optimize their operations for maximum profitability in the dynamic landscape of Bitcoin mining.

Final Thoughts on the WHATSMINER M30S 94TH

The WHATSMINER M30S 94TH established itself as a reliable and efficient Bitcoin mining workhorse following its release in 2020. Its strong hash rate of 94 TH/s, coupled with a focus on improved energy efficiency compared to earlier models, made it a popular choice for miners seeking a balance of performance and cost-effectiveness. While newer, more powerful miners have since been introduced, the WHATSMINER M30S 94TH remains a capable option for Bitcoin mining operations, offering a solid foundation for profitability when electricity costs are managed effectively. Its robust design and stable performance have contributed to its enduring presence in the Bitcoin mining community.

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