Vishnu N K visnkmr

Okay, here is a table comparing the main AMD processors released in 2024 and relevant Apple Silicon SoCs, along with their approximate Cinebench R23 scores.

Important Considerations:

Benchmark Variability: Cinebench R23 scores are approximate and can vary significantly based on the specific device/system (cooling, power limits/TDP, RAM speed, motherboard). Mobile chip scores are especially variable depending on the laptop's design.
Platform Differences: Comparing desktop CPUs (like Ryzen 9000X) directly with mobile SoCs (like Apple M3 or Ryzen 8040HS) isn't always apples-to-apples due to power and thermal differences.
Workload Focus: Cinebench primarily measures CPU rendering performance. It doesn't fully represent gaming (where factors like cache and single-core speed are critical) or AI performance (where NPUs are involved).
Availability: "Released in 2024" for AMD includes chips announced and shipped during the calendar year. Apple's M3 series launched late 2023 but ar

Okay, here is the expanded table including processors from MediaTek, Qualcomm (Snapdragon), and Samsung (Exynos) announced in 2022, 2023, and since the start of 2024. The list is sorted roughly by performance tier (Flagship > High-End > Mid-Range > Budget) and then chronologically within tiers (newest generally first).

Important Considerations:

Score Variability: AnTuTu v10 scores are highly dependent on the specific phone model (cooling, RAM, storage), software optimizations, and testing conditions. The scores listed are representative ranges based on available data and can vary. Scores for older chips might be estimated from v9 benchmarks if v10 data is less common.
Theoretical Speeds: The 5G speeds shown are theoretical maximums defined by the modem's capabilities and 3GPP standards. Real-world speeds are significantly lower and influenced by carrier network, plan, signal strength, location, and device specifics.
Launch vs. Availability: Announcement dates are listed. Ch

	Here are some common properties of an image that can vary:

	Scale: The size of the image can change, making it larger or smaller.
	Rotation: The image can be rotated by a certain angle, making it appear tilted or turned.
	Affine transformations: The image can be transformed using a combination of scaling, rotation, and shear (stretching or compressing in a specific direction).
	Translation: The image can be moved horizontally or vertically, changing its position.
	Flip: The image can be flipped horizontally or vertically, mirroring it.
	Perspective: The image can be transformed to simulate a different viewpoint or perspective.
	Skew: The image can be skewed, making it appear as if it's been stretched or compressed in a specific direction.
	Aspect ratio: The ratio of the image's width to its height can change, making it appear more rectangular or square.

	# class TimeMap:

	# def __init__(self):
	# self.save={}

	# def set(self, key: str, value: str, timestamp: int) -> None:
	# if key not in self.save:
	# self.save[key] = []
	# self.save[key].append([value, timestamp])

	(^\|\.)akamaized\.net$

	#[cfg(target_os = "windows")]
	let output = Command::new()
	.args()
	.creation_flags(0x08000000) // do not open a cmd window
	.output();

	adb shell settings put global window_animation_scale 0.0
	adb shell settings put global transition_animation_scale 0.0
	adb shell settings put global animator_duration_scale 0.0

	#Find most recent activity packagename
	adb shell dumpsys activity recents \| find "Recent #0"
	adb shell "dumpsys activity activities \| grep ResumedActivity"

	#get all download counts from table on google developer console to browser console

	for (let i = 0; i < 100; i++) {
	if(i%2==1)console.log(document.getElementsByClassName('main-text _ngcontent-wio-47')[i].innerHTML);}