What Projects Can I Build After Beginning Programming With Python?

I've followed 'Our Beginning After the End' from its early chapters, and the ending is bittersweet yet deeply satisfying. The protagonist, Arthur, undergoes immense growth—from a lost king to a man who embraces his flaws and humanity. The final arcs tie up major conflicts with visceral battles and emotional reunions. Yes, there’s joy in seeing characters find peace, but it’s laced with sacrifice. Loved ones are lost, and Arthur’s journey isn’t without scars. The epilogue offers closure, though—a quiet sunrise after the storm, hinting at new beginnings. It’s happy in a mature way, not fairy-tale perfect but real and earned. The romance subplots resolve tenderly, friendships endure, and the world rebuilds. What makes it fulfilling is how the story balances victory with vulnerability. Arthur doesn’t just 'win'; he learns to cherish what he fought for. If you crave a neat, uncomplicated ending, this might unsettle you. But if you appreciate depth—where happiness is hard-won and layered—you’ll close the book with a contented sigh.

The opener of 'Multiverse SSS Rank Treasure Chest at the Beginning' hits like a truck. Protagonist Lin Feng wakes up in a bizarre white room with a glowing golden chest floating before him. The system voice announces he's been chosen for a multiverse survival game, and this SSS-rank chest is his starter kit. When he pries it open, chaos erupts—he gets three game-breaking abilities: 'Omniscient Eye' to analyze anything, 'Infinity Storage' that defies physics, and 'Reality Rewrite,' which lets him alter minor world rules. The first chapter shows him testing these powers in a zombie-infested tutorial dimension, casually looting an entire supermarket into his pocket dimension while eyeballing undead weaknesses like they're tutorial pop-ups.

I've been following 'Multiverse SSS Rank Treasure Chest at the Beginning' since its novel debut, and from what I know, there isn't a manga adaptation yet. The novel's popularity is skyrocketing, especially in webnovel circles, but manga adaptations usually take time to materialize. The story's blend of system-based progression and multiverse exploration would translate amazingly into visual form—imagine those treasure chests glowing with cosmic energy or the protagonist battling interdimensional beasts. If you're craving similar vibes, check out 'Solo Leveling' for that satisfying power climb or 'The Beginning After The End' for another isekai with deep lore. Keep an eye on official announcements though; this one's prime material for adaptation.

The protagonist in 'Beginning of the Awakening God' is Lu Chen, a seemingly ordinary college student who stumbles into a hidden world of ancient gods and supernatural battles. Initially, he’s just trying to survive exams and crushes, but fate throws him into chaos when he inherits the fragmented power of a forgotten deity. His journey isn’t about flashy heroics—it’s raw, messy growth. He struggles with moral gray areas, like using divine powers to manipulate outcomes or facing allies who betray him for power. His most compelling trait? Vulnerability. Unlike typical OP protagonists, Lu Chen bleeds, doubts, and sometimes fails spectacularly. The story shines when he balances human fragility with godly potential, like when he resurrects a fallen friend but at the cost of his own memories. It’s this duality—part mortal, part myth—that anchors the narrative. What sets Lu Chen apart is his connection to other characters. His bond with Bai Yue, a rogue exorcist, crackles with tension—they clash over ethics but rely on each other to survive. Even antagonists like the frost goddess Ling have layered relationships with him, blurring lines between enemy and ally. The novel’s brilliance lies in how Lu Chen’s humanity persists despite his escalating power. He’s not a chosen one; he’s a boy forced to choose, and that makes his godhood awakening utterly gripping.

Oh, this is one of those questions that sparks a little nostalgia for me — I used to have a stack of PDFs and a battered laptop I carried everywhere while trying to actually learn C. If you mean the classic 'The C Programming Language' by Kernighan and Ritchie, the book absolutely contains exercises at the end of most chapters in the PDF. Those exercises are one of the best parts: short drills, design questions, and longer programming tasks that push you to think about pointers, memory, and C idiosyncrasies. What the official PDF doesn't give you, though, are full, worked-out solutions. The authors intentionally left solutions out of the book so people actually struggle and learn — which can be maddening at 2 a.m. when your pointer math goes sideways. That gap has spawned a ton of community-made solution sets, GitHub repos, and university handouts. Some instructors release solutions to their students (sometimes attached to an instructor's manual), and some unofficial PDFs floating around include annotated solutions, but those are often unauthorized or incomplete. My practical take: treat the exercises as the meat of learning. Try them on your own, run them in an online compiler, then peek at community solutions only to compare approaches or debug logic. And if you want a book with official worked examples, hunt for companion texts or textbooks that explicitly state they include answers — many modern C texts and exercise collections do. Happy debugging!

Honestly, when I need something that just works without drama, I reach for pikepdf first. I've used it on a ton of small projects — merging batches of invoices, splitting scanned reports, and repairing weirdly corrupt files. It's a Python binding around QPDF, so it inherits QPDF's robustness: it handles encrypted PDFs well, preserves object streams, and is surprisingly fast on large files. A simple merge example I keep in a script looks like: import pikepdf; out = pikepdf.Pdf.new(); for fname in files: with pikepdf.Pdf.open(fname) as src: out.pages.extend(src.pages); out.save('merged.pdf'). That pattern just works more often than not. If you want something a bit friendlier for quick tasks, pypdf (the modern fork of PyPDF2) is easier to grok. It has straightforward APIs for splitting and merging, and for basic metadata tweaks. For heavy-duty rendering or text extraction, I switch to PyMuPDF (fitz) or combine tools: pikepdf for structure and PyMuPDF for content operations. Overall, pikepdf for reliability, pypdf for convenience, and PyMuPDF when you need speed and rendering. Try pikepdf first; it saved a few late nights for me.

Okay, if you want the short practical scoop from me: PyMuPDF (imported as fitz) is the library I reach for when I need to add or edit annotations and comments in PDFs. It feels fast, the API is intuitive, and it supports highlights, text annotations, pop-up notes, ink, and more. For example I’ll open a file with fitz.open('file.pdf'), grab page = doc[0], and then do page.addHighlightAnnot(rect) or page.addTextAnnot(point, 'My comment'), tweak the info, and save. It handles both reading existing annotations and creating new ones, which is huge when you’re cleaning up reviewer notes or building a light annotation tool. I also keep borb in my toolkit—it's excellent when I want a higher-level, Pythonic way to generate PDFs with annotations from scratch, plus it has good support for interactive annotations. For lower-level manipulation, pikepdf (a wrapper around qpdf) is great for repairing PDFs and editing object streams but is a bit more plumbing-heavy for annotations. There’s also a small project called pdf-annotate that focuses on adding annotations, and pdfannots for extracting notes. If you want a single recommendation to try first, install PyMuPDF with pip install PyMuPDF and play with page.addTextAnnot and page.addHighlightAnnot; you’ll probably be smiling before long.

I get excited about this stuff — if I had to pick one go-to for parsing very large PDFs quickly, I'd reach for PyMuPDF (the 'fitz' package). It feels snappy because it's a thin Python wrapper around MuPDF's C library, so text extraction is both fast and memory-efficient. In practice I open the file and iterate page-by-page, grabbing page.get_text('text') or using more structured output when I need it. That page-by-page approach keeps RAM usage low and lets me stream-process tens of thousands of pages without choking my machine. For extreme speed on plain text, I also rely on the Poppler 'pdftotext' binary (via the 'pdftotext' Python binding or subprocess). It's lightning-fast for bulk conversion, and because it’s a native C++ tool it outperforms many pure-Python options. A hybrid workflow I like: use 'pdftotext' for raw extraction, then PyMuPDF for targeted extraction (tables, layout, images) and pypdf/pypdfium2 for splitting/merging or rendering pages. Throw in multiprocessing to process pages in parallel, and you’ll handle massive corpora much more comfortably.