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Maximizing Samsung Galaxy Performance: A Comprehensive Guide to One UI Optimization and System Management

by Ammar Sabilarrohman October 25, 2025

written by Ammar Sabilarrohman

Samsung, through its widely popular Galaxy line of smartphones, offers an array of integrated software features meticulously designed to optimize device performance. These robust tools, embedded within the Android-based One UI interface, empower users to fine-tune system configurations, thereby enhancing speed, power efficiency, and overall responsiveness in daily usage. The imperative for such optimization has grown significantly in recent years, driven by the escalating demands of resource-intensive applications, prevalent multitasking, and the pervasive consumption of high-fidelity digital content.

The Core of Control: Device Care and One UI

Samsung Galaxy devices, powered by Android and featuring the proprietary One UI, present a unified and intuitive ecosystem for performance management without the need for third-party applications. Central to this ecosystem is the "Device Care" or "Battery and Device Care" menu, serving as a comprehensive hub for monitoring and controlling various aspects of device health. This dedicated section provides real-time insights into memory usage, battery consumption patterns, and storage allocation, granting users unprecedented visibility and control over their device’s operational status. The evolution of this feature underscores Samsung’s long-standing commitment to not only deliver cutting-edge hardware but also to refine the software experience, ensuring that users can maintain peak performance throughout their device’s lifespan. Introduced and progressively enhanced over several One UI iterations, Device Care has become a cornerstone of Samsung’s user experience philosophy, adapting to increasingly complex mobile computing environments.

Managing Background Applications: A Critical Optimization Layer

One of the most significant contributors to performance degradation and accelerated battery drain is the unchecked activity of background applications. The Android operating system inherently allows applications to remain active in the background, facilitating instant notifications, data synchronization, and quick resumption. While beneficial for user convenience, an excessive number of active background processes can hog precious RAM, consume CPU cycles, and deplete battery life, even when the user is not actively interacting with the app.

Samsung’s One UI provides granular controls within the Device Care menu to manage these background activities. Users can identify which applications are consuming the most resources and selectively restrict their background operations. Options typically include "Put to sleep," "Deep sleep," or disabling background activity entirely for specific apps. The "Put to sleep" option temporarily pauses an app’s background activity until it’s manually opened or receives a critical notification. "Deep sleep" is more aggressive, preventing an app from running in the background at all until explicitly launched. This sophisticated management system goes beyond Android’s native Doze mode and App Standby features, offering users a more proactive approach to resource allocation. For instance, social media apps, messaging clients, and navigation tools are often culprits of high background resource usage, and managing their permissions can yield immediate improvements in device responsiveness and battery longevity. This capability empowers users to reclaim resources, ensuring that critical foreground tasks receive adequate processing power.

Leveraging Performance Modes: Tailoring Power for Every Task

Modern smartphones are expected to handle a diverse range of tasks, from casual browsing and messaging to intense gaming and professional content creation. To cater to these varied demands, Samsung Galaxy devices incorporate "Performance Modes," allowing users to select a profile that best suits their current usage scenario. These modes typically include "Standard," "Power Saving," and "High Performance," each making distinct adjustments to the device’s Central Processing Unit (CPU) and Graphics Processing Unit (GPU) frequencies, among other system parameters.

The "Standard" mode offers a balanced approach, providing optimal performance for everyday tasks while maintaining reasonable battery efficiency. It dynamically adjusts CPU and GPU speeds based on immediate needs, offering a smooth experience without unnecessary power consumption. The "Power Saving" mode, conversely, prioritizes battery longevity. It often throttles the CPU and GPU, reduces screen brightness and resolution (on some models), limits background data usage, and may even restrict certain animations to conserve energy. This mode is ideal for situations where battery life is paramount, such as long commutes or when access to a charger is limited. On the other end of the spectrum, the "High Performance" mode unleashes the full potential of the device’s hardware. It maximizes CPU and GPU clock speeds, ensuring the smoothest possible experience for demanding applications like high-fidelity gaming, video editing, or augmented reality experiences. While this mode provides unparalleled responsiveness, it naturally comes at the cost of increased battery consumption and potentially higher device temperatures. The ability to switch between these modes provides a strategic advantage, allowing users to dynamically adapt their device’s power profile to meet immediate operational requirements.

Optimizing Display Refresh Rates: Smoothness Versus Stamina

The display is one of the most power-hungry components of a smartphone, and its refresh rate plays a crucial role in both visual fluidity and battery consumption. Many contemporary Samsung Galaxy devices boast high refresh rates, typically up to 120Hz, which significantly enhances the perceived smoothness of scrolling, animations, and gaming. A 120Hz display refreshes its image 120 times per second, twice as often as a traditional 60Hz display, resulting in a noticeably more fluid visual experience.

However, operating the display at 120Hz demands considerably more power from the battery. For users who prioritize battery life or do not perceive a substantial difference for their typical usage, lowering the refresh rate to 60Hz can yield significant power savings. Newer Samsung models, particularly those featuring LTPO (Low-Temperature Polycrystalline Oxide) display technology, offer "Adaptive Refresh Rate" capabilities. These advanced displays can dynamically adjust the refresh rate from as low as 1Hz (for static content) up to 120Hz (for fast-moving content), providing the best of both worlds: buttery-smooth visuals when needed and exceptional power efficiency otherwise. Users can typically find these settings under the "Display" menu, allowing them to choose between "Adaptive" (for dynamic adjustment) or "Standard" (fixed 60Hz) modes, thereby balancing visual performance with battery endurance.

Strategic Storage Management: Clearing the Digital Clutter

Over time, smartphones accumulate a vast amount of temporary files, cached data, and residual application data, collectively known as "digital clutter." While caches are initially designed to speed up app loading by storing frequently accessed data, an excessive buildup can paradoxically slow down the system and consume valuable storage space. This accumulation can lead to sluggish performance, longer app loading times, and even system instability.

Samsung’s Device Care functionality includes robust tools for managing storage. Users can regularly clear cached data for individual applications or initiate a comprehensive system-wide cleanup. This feature intelligently identifies and categorizes various types of unnecessary files, such as temporary internet files, old installation packages, duplicate photos, and large media files, making it easy for users to reclaim storage space. Regular cache clearing not only frees up internal storage but also helps maintain the responsiveness of the operating system and applications. The system also offers automatic cleanup features, which can be configured to periodically remove junk files, ensuring that the device remains lean and efficient without constant manual intervention. This proactive approach to storage management is vital for maintaining optimal system health and responsiveness over the long term.

The Role of RAM Plus (Virtual RAM): Boosting Multitasking Capabilities

In the pursuit of enhanced multitasking capabilities, Samsung introduced "RAM Plus," a feature that allows a portion of the device’s internal storage to be utilized as virtual Random Access Memory (RAM). This concept, borrowed from traditional computer operating systems (where it’s often referred to as a paging file or swap space), effectively expands the perceived RAM capacity of the device. For instance, a phone with 8GB of physical RAM might gain an additional 4GB or 6GB of virtual RAM, depending on user settings and available storage.

Pengaturan Ini Buat Performa Samsung Galaxy Jadi Optimal

While virtual RAM is significantly slower than physical RAM, it provides a crucial buffer, particularly for devices with limited physical RAM (e.g., 4GB or 6GB models). When physical RAM is exhausted, the system can offload less frequently used application data to the virtual RAM, preventing apps from being aggressively closed in the background. This allows users to keep more applications open simultaneously and switch between them more smoothly, without experiencing frustrating reloads. RAM Plus is especially beneficial for users who frequently juggle multiple demanding applications or games, ensuring a more seamless multitasking experience. This feature highlights Samsung’s innovative approach to extracting maximum performance from existing hardware through clever software solutions.

Smart Connectivity Management: Minimizing Unnecessary Drain

Connectivity features such as Bluetooth, GPS (Global Positioning System), and NFC (Near Field Communication) are indispensable for modern smartphone usage. However, leaving them constantly active when not in use can contribute to unnecessary system load and, more significantly, accelerated battery drain. These radios continuously scan for connections, consuming power even in standby.

By consciously disabling Bluetooth when not paired with an accessory, turning off GPS when not actively navigating, or deactivating NFC when not making contactless payments, users can effectively reduce the device’s background power consumption. This simple habit contributes to better battery efficiency, which in turn helps sustain overall device performance by preventing the system from throttling due to low power. While the power savings from each individual radio might seem minor, their cumulative effect over a day can be substantial. Furthermore, reducing the number of active radios can also minimize potential security vulnerabilities, as fewer active connections mean fewer potential entry points for unauthorized access.

The Imperative of System Updates: Security, Stability, and Speed

Software updates are far more than just feature additions; they are critical for maintaining the security, stability, and optimal performance of any smartphone. Samsung regularly releases system and security updates for its Galaxy devices, which encompass a range of improvements. These updates often include crucial bug fixes that address performance bottlenecks and software glitches, ensuring smoother operation. More importantly, they incorporate the latest security patches from Android, protecting user data from newly discovered vulnerabilities and cyber threats.

Beyond security, these updates frequently contain performance optimizations, refining how the operating system interacts with the hardware. This can lead to subtle but noticeable improvements in app loading times, animation fluidity, and overall system responsiveness. Staying on the latest software version is paramount for both security and performance. Samsung’s commitment to providing multiple years of software updates for its Galaxy lineup underscores the importance of this aspect, ensuring devices remain relevant and secure long after their initial purchase. Users are strongly encouraged to install these updates promptly to leverage the full benefits of ongoing software development and maintain their device’s peak operational state.

Adaptive Battery and AI-Powered Efficiency: Learning User Habits

Samsung’s One UI also integrates intelligent, adaptive features like "Adaptive Battery," which leverages machine learning to understand and predict user behavior patterns. This advanced feature observes how users interact with their device and specific applications over time, learning which apps are used frequently and which are rarely accessed.

Based on these learned patterns, Adaptive Battery intelligently optimizes power distribution. It places less frequently used applications into deeper sleep states, restricting their background activity and preventing them from consuming power unnecessarily. This proactive management ensures that battery power is primarily allocated to the apps and services that the user values most, enhancing overall battery life without requiring constant manual intervention. This AI-powered approach moves beyond simple power-saving modes, offering a dynamic and personalized optimization strategy that evolves with the user’s habits, further solidifying the holistic software experience Samsung aims to deliver.

The Broader Impact: User Empowerment, Longevity, and Sustainability

The comprehensive suite of performance optimization tools offered by Samsung Galaxy devices extends far beyond mere technical adjustments; it represents a significant step towards user empowerment and device longevity. By providing users with intuitive controls over critical system functions, Samsung enables them to actively participate in maintaining their device’s health and responsiveness. This level of control reduces the reliance on potentially intrusive or ineffective third-party "cleaner" applications, which often consume more resources than they save.

The ability to effectively manage a smartphone’s performance directly translates into an extended usable lifespan for the device. A well-optimized phone that continues to run smoothly is less likely to be prematurely replaced due to perceived slowdowns, thereby contributing to environmental sustainability by reducing electronic waste. Industry analysts frequently commend Samsung’s integrated approach, recognizing that user-accessible performance tools are a key differentiator in a competitive market, fostering greater user satisfaction and brand loyalty. User feedback consistently highlights the appreciation for these built-in functionalities, which provide tangible benefits in daily usage.

Samsung’s Philosophy and the Future of Mobile Performance

Samsung Electronics’ philosophy in device development increasingly emphasizes that optimal performance is not solely dependent on raw hardware specifications but equally, if not more, on intelligent software management and optimization. This integrated approach ensures that the cutting-edge processors, ample RAM, and high-resolution displays are fully utilized and sustained throughout the device’s operational life.

As mobile technology continues to evolve, with the advent of more complex AI functionalities, immersive augmented reality experiences, and higher demands for instantaneous connectivity, the role of software optimization will only grow in importance. Samsung’s continuous refinement of One UI and its Device Care features positions the Galaxy line at the forefront of delivering a consistently fluid and efficient user experience. This strategy ensures that Samsung Galaxy devices remain responsive, secure, and energy-efficient, adapting to the ever-increasing demands of the digital world.

Conclusion: A Holistic Approach for an Optimal User Experience

In conclusion, the performance optimization features embedded within Samsung Galaxy devices, accessible primarily through the Device Care menu, provide users with powerful and flexible tools to tailor their smartphone experience. From meticulous background app management and dynamic performance modes to strategic storage cleaning, virtual RAM expansion, and smart connectivity control, these functionalities offer a holistic approach to maintaining peak device performance. Coupled with the crucial role of regular system updates and intelligent adaptive battery features, Samsung empowers its users to extend the lifespan of their devices, preserve responsiveness, and ensure a stable, secure, and enjoyable mobile computing experience. This commitment to software excellence, alongside hardware innovation, solidifies Samsung’s position as a leader in the global smartphone market.

October 25, 2025 0 comment

Entertainment and Celebrity

Optimization of Solar Power Plant Land Through Solar Grazing Becomes the Key to Energy Resilience and Operational Efficiency.

by Evan Lee Salim July 17, 2025

written by Evan Lee Salim

The landscape of renewable energy in Indonesia is undergoing a fundamental shift as industry leaders move beyond the initial hurdles of construction and installation to focus on the long-term sustainability of power generation assets. In a strategic assessment of the sector’s future, Syam Basrijal, the Chief Executive Officer of PT Gema Aset Solusindo, has highlighted that the efficiency of Solar Power Plant (PLTS) projects can no longer be measured solely through the lens of initial capital expenditure or the immediate electricity tariffs produced. Instead, a more holistic approach involving the integration of energy production and agricultural management—specifically through a method known as solar grazing—is emerging as a critical factor in driving down operational costs and ensuring the long-term resilience of the nation’s energy infrastructure.

Speaking at a specialized industry forum in Jakarta on Monday, April 13, 2026, Syam Basrijal emphasized that the operational phase of a solar project, which typically spans 25 to 30 years, has historically been the most overlooked segment of the asset’s lifecycle. While significant attention is paid to the procurement of high-efficiency photovoltaic panels and the engineering of mounting structures, the day-to-day management of the land beneath these panels often falls into a secondary category of concern. However, in tropical environments such as Indonesia, where high humidity and frequent rainfall lead to aggressive vegetation growth, the failure to manage land effectively can lead to spiraling maintenance costs and reduced energy output.

The Tropical Challenge: Vegetation and Operational Expenditure

In the context of ground-mounted solar arrays, vegetation management is not merely an aesthetic concern but a technical necessity. When grass and weeds are left unchecked, they can grow tall enough to cast shadows on the solar modules. Even partial shading on a single cell can disproportionately reduce the energy output of an entire string of panels, a phenomenon known as the "shading effect." In the fertile soils of the Indonesian archipelago, grass can grow several centimeters in a single week during the rainy season, requiring constant intervention.

Traditionally, solar plant operators have relied on mechanical mowing or chemical herbicides to keep vegetation at bay. Syam Basrijal pointed out that these methods are becoming increasingly unsustainable. Mechanical mowing requires labor-intensive schedules and the use of fossil-fuel-powered equipment, which ironically increases the carbon footprint of a "green" energy project. Furthermore, the use of heavy machinery risks damaging the sensitive mounting structures or the underground cabling that connects the arrays. Chemical solutions, on the other hand, pose significant risks to soil health and local water tables, contradicting the Environmental, Social, and Governance (ESG) principles that many renewable energy investors now prioritize.

"Solar grazing changes the way we interpret efficiency," Syam remarked during his presentation. "It is not just about how we build the plant, but how we manage the space in a sustainable manner. Land should be viewed as an integral part of a production system that can be continuously optimized, rather than just a passive platform for panels."

The Mechanics of Solar Grazing and Agrivoltaics

Solar grazing is a specialized form of agrivoltaics—the simultaneous use of land for both solar power generation and agriculture. In this model, livestock, most commonly sheep, are introduced to the solar farm site to act as natural lawnmowers. Sheep are particularly well-suited for this role because they are small enough to graze underneath the panels, unlike cattle which are too large and heavy, or goats which have a tendency to climb on equipment and chew through electrical wiring.

The benefits of this integration are multi-fold. For the solar plant operator, the primary advantage is a significant reduction in Operation and Maintenance (O&M) costs. By utilizing sheep, the need for mechanical mowing is virtually eliminated. For the livestock owner or local farming community, the solar farm provides a secure, shaded environment with a consistent supply of forage. The panels provide the animals with protection from the sun and rain, which has been shown to improve animal welfare and growth rates.

Furthermore, the presence of livestock contributes to a circular economy. The manure produced by the grazing animals acts as a natural fertilizer, improving the soil quality over the 30-year lifespan of the project. This prevents the land from becoming fallow or degraded, ensuring that once the solar plant reaches the end of its life, the site remains fertile and ready for other agricultural uses.

Economic Data and Strategic Implications

The economic argument for solar grazing is supported by emerging data from global markets, which PT Gema Aset Solusindo is now looking to apply within the Indonesian context. Industry benchmarks suggest that vegetation management can account for as much as 20% to 30% of the total O&M budget for a ground-mounted solar facility. By transitioning to solar grazing, operators can potentially reduce these specific costs by 50% or more, depending on the scale of the site and local labor rates.

As Indonesia pushes toward its Net Zero Emission (NZE) targets by 2060, or sooner with international support through initiatives like the Just Energy Transition Partnership (JETP), the scale of solar deployment is expected to accelerate. The Ministry of Energy and Mineral Resources (ESDM) has identified solar energy as a backbone of the national energy transition due to its modularity and the abundance of solar irradiance across the country. However, as more "National Strategic Projects" (PSN) involving solar power are launched, the competition for land becomes a sensitive issue.

The "food vs. fuel" debate—or in this case, "food vs. energy"—is a significant hurdle for large-scale solar farms. By adopting solar grazing, developers can mitigate social friction and land-use conflicts. When land remains productive for agriculture while generating electricity, it becomes much easier to secure permits and community buy-in. This dual-use strategy is increasingly seen as a requirement by international lenders and green bond issuers who demand high standards of social responsibility.

Chronology of Solar Development in Indonesia

The evolution of solar energy in Indonesia has moved through several distinct phases. In the early 2010s, the focus was primarily on off-grid, decentralized systems for remote islands. By 2020, the focus shifted toward large-scale utility projects, evidenced by the development of the Cirata Floating Solar Power Plant, which sought to bypass land-use issues by utilizing water surfaces.

However, floating solar has higher capital costs compared to ground-mounted systems. Consequently, for Indonesia to reach its target of 4.68 Gigawatts (GW) of solar capacity by 2030 as outlined in the RUPTL (Electricity Supply Business Plan), ground-mounted systems in regions like East Nusa Tenggara (NTT) and West Nusa Tenggara (NTB) remain essential. The year 2024 saw the commencement of several large-scale land-based projects, which has now, by 2026, led to the current industry focus on long-term operational efficiency.

The statements made by Syam Basrijal reflect a maturing industry that is now grappling with the realities of asset management. The shift in focus from "getting the project built" to "keeping the project profitable and sustainable" marks a turning point for Indonesian renewable energy firms.

Stakeholder Reactions and Broader Impact

The push for solar grazing has garnered interest from various sectors. Environmental advocacy groups have cautiously welcomed the move, noting that it reduces the reliance on fossil-fuel-intensive maintenance. Meanwhile, the Ministry of Agriculture has expressed interest in how such schemes could support national food security by providing new grazing grounds for the country’s livestock industry, which often struggles with land availability.

Technological providers are also adapting. New solar mounting systems are being designed with slightly higher clearances to facilitate the movement of livestock, and cable protection systems are being reinforced to ensure that the integration of animals does not compromise the electrical integrity of the plant.

From a financial perspective, the integration of solar grazing can improve the Levelized Cost of Energy (LCOE). By lowering the annual O&M expenses, the overall lifetime cost of producing one megawatt-hour of electricity decreases. This makes solar energy more competitive against coal-fired power plants, which still dominate the Indonesian grid but face rising costs due to carbon taxes and fluctuating fuel prices.

Conclusion: A Vision for Energy Resilience

The insights provided by PT Gema Aset Solusindo serve as a blueprint for the next generation of energy projects in Southeast Asia. As Syam Basrijal concluded, the goal is to create a "symbiotic relationship" between the energy sector and the environment. In the pursuit of energy resilience, the most effective solutions are often those that work with nature rather than against it.

By viewing the land as a dynamic asset and the grazing animals as partners in maintenance, Indonesia can optimize its solar infrastructure to be more than just a source of power. It can become a model for sustainable land management that supports local economies, protects the environment, and ensures that the transition to clean energy is both economically viable and socially inclusive. As the country moves closer to its 2030 and 2060 milestones, the adoption of such innovative practices will likely be the deciding factor in the success of its national energy strategy.

July 17, 2025 0 comment