Create a well-structured academic assignment in PDF format on the topic “SWISS-PROT and PROSITE” for a student. The assignment should be attractive, properly formatted, and around 2.5 to 3 pages in length. Follow these instructions strictly: 1. Start with a clear INTRODUCTION (1 page) explaining both SWISS-PROT and PROSITE in simple but informative language. 2. Add a section titled SIMILARITIES BETWEEN SWISS-PROT AND PROSITE Include exactly 10 points Use numbered format Keep points concise but meaningful 3. Add a section titled DIFFERENCES BETWEEN SWISS-PROT AND PROSITE Include exactly 20 points Use clear comparison style Avoid repetition and keep each point unique 4. Add a section EXAMPLES Give at least 2 examples for SWISS-PROT Give at least 2 examples for PROSITE 5. Add a CONCLUSION (2–3 lines) 6. Add a MIND MAP or FLOWCHART showing the relationship between: Protein SWISS-PROT PROSITE Function Motifs 7. Formatting requirements: Headings must be bold, larger font, and visually attractive Use clean spacing and readable font (like Times New Roman or Calibri) Maintain proper alignment and margins Use bullet points and numbering neatly Make the document look like a high-quality student assignment 8. Ensure: Content is original and not copied Language is simple and suitable for exams Total length should be enough to fill at least 2.5–3 pages Output should be clean and ready to convert into a PDF file.

Reading File

search_medical_text

SWISS-PROT protein sequence database annotation

search_medical_text

PROSITE protein motifs patterns profiles database

GradeResponse

general-purpose

Create a well-formatted, academic-quality HTML file at the path `/output/swiss_prot_prosite_assignment.html` that is designed to look like a PDF-ready student assignment. The topic is "SWISS-PROT and PROSITE". Follow ALL instructions below precisely. --- ## CONTENT REQUIREMENTS ### Title Block (top of page) - Title: SWISS-PROT AND PROSITE - Subtitle: A Comprehensive Academic Assignment - Course: Bioinformatics - Submitted by: [Student Name] - Date: June 2025 --- ### SECTION 1: INTRODUCTION (approx. 1 full page) Write a detailed, informative introduction covering: **SWISS-PROT:** - SWISS-PROT is a manually annotated, non-redundant protein sequence database. It was created in 1986 by Amos Bairoch at the University of Geneva and is now maintained by the UniProt Consortium (SIB Swiss Institute of Bioinformatics, EMBL-EBI, and PIR). - It is part of the UniProtKB (UniProt Knowledgebase). - Each entry contains: protein name, organism source, taxonomy, function, subcellular location, post-translational modifications, disease associations, cross-references to other databases, and literature citations. - It is known for high-quality manual curation — expert biologists review and annotate each entry. - It avoids redundancy by merging sequences from the same protein in the same species. - SWISS-PROT focuses on quality over quantity; its counterpart TrEMBL contains computationally annotated entries. **PROSITE:** - PROSITE is a database of protein families and domains. It was also developed by Amos Bairoch and is maintained by the Swiss Institute of Bioinformatics (SIB). - It contains patterns, profiles, and rules that describe protein families, domains, and functional sites. - A "pattern" in PROSITE is a regular expression that defines a conserved amino acid sequence motif — these motifs are often associated with specific protein functions. - A "profile" is a more sensitive mathematical model (position-specific scoring matrix) used to detect distantly related proteins. - PROSITE is used to classify new proteins by searching their sequences against known patterns/profiles. - It is closely integrated with SWISS-PROT — every PROSITE pattern is cross-referenced to SWISS-PROT entries. - PROSITE has practical applications in predicting protein function, identifying active sites, and studying evolutionary relationships. --- ### SECTION 2: SIMILARITIES BETWEEN SWISS-PROT AND PROSITE Title: "SIMILARITIES BETWEEN SWISS-PROT AND PROSITE" Include EXACTLY 10 numbered points. Each point should be concise and meaningful. Points to include: 1. Both are bioinformatics databases developed and maintained by the Swiss Institute of Bioinformatics (SIB). 2. Both were originally created by Dr. Amos Bairoch, a pioneer in bioinformatics. 3. Both focus on proteins — SWISS-PROT stores protein sequences while PROSITE defines protein patterns and domains. 4. Both are freely accessible online and are widely used by researchers worldwide. 5. Both are integrated within the ExPASy (Expert Protein Analysis System) bioinformatics resource portal. 6. Both use standardized accession numbers and unique identifiers for their entries. 7. Both cross-reference each other — SWISS-PROT entries link to PROSITE patterns and vice versa. 8. Both contribute to the understanding of protein function and structure. 9. Both are regularly updated with new data and curated information. 10. Both are integral components of the UniProt ecosystem and support functional annotation of proteins. --- ### SECTION 3: DIFFERENCES BETWEEN SWISS-PROT AND PROSITE Title: "DIFFERENCES BETWEEN SWISS-PROT AND PROSITE" Present as a comparison. Include EXACTLY 20 points. Use a two-column table format with headers "SWISS-PROT" and "PROSITE". Each row is one comparison point. Points: 1. Stores full protein sequences | Stores patterns, profiles, and rules (not full sequences) 2. Focuses on individual protein entries | Focuses on protein families and domains 3. Each entry represents a single protein | Each entry represents a conserved motif or domain family 4. Contains experimental functional annotations | Contains computational/statistical models of protein motifs 5. Developed in 1986 | PROSITE was developed in 1988 6. Part of UniProtKB | Maintained independently under ExPASy/SIB 7. Contains taxonomic information (organism, lineage) | Does not contain taxonomic data per entry 8. Provides disease association information | Does not directly link to disease data 9. Includes subcellular localization data | Does not include localization information 10. Contains literature references (PubMed citations) | Contains limited literature references 11. Entries are manually reviewed by expert biologists | Entries are built from multiple aligned sequences using computational tools 12. Has millions of entries (TrEMBL) + ~570,000 manually reviewed entries | Contains approximately 1,800–2,000 entries/patterns 13. Provides information about post-translational modifications | Does not describe PTMs directly 14. Can be searched by protein name, gene name, or accession | Searched by pattern ID, protein family name, or keyword 15. Used for retrieving complete protein information | Used for identifying protein family membership 16. Output includes full amino acid sequences in FASTA format | Output includes pattern syntax (regular expressions or profiles) 17. Has a section for 3D structural data cross-references (PDB) | Does not directly cross-reference 3D structures 18. Includes cofactor and catalytic activity descriptions | Describes only conserved functional residues within motifs 19. Suitable for proteomics and systems biology studies | Primarily used in sequence analysis and domain prediction 20. Entry format includes feature tables (FT) with annotated residues | Entry format includes consensus patterns in a specific PROSITE syntax --- ### SECTION 4: EXAMPLES Title: "EXAMPLES" **SWISS-PROT Examples:** Example 1 — Human Insulin (Accession: P01308) - This SWISS-PROT entry describes the protein Insulin in Homo sapiens. - It contains the full amino acid sequence of the insulin precursor (preproinsulin). - The entry includes details about post-translational cleavage to form the mature A and B chains. - Functional annotation notes its role in glucose regulation. - Disease associations include Type 1 and Type 2 Diabetes Mellitus. Example 2 — Human p53 Tumor Suppressor (Accession: P04637) - This entry describes the TP53 protein, a critical tumor suppressor in humans. - It contains the full sequence, DNA-binding domain annotation, and tetramerization domain. - It is associated with over 50% of human cancers in its mutated form. - The entry cross-references PROSITE for the p53 signature pattern. **PROSITE Examples:** Example 1 — Zinc Finger C2H2 Pattern (PROSITE ID: PS00028) - This PROSITE entry defines the consensus pattern for the C2H2-type zinc finger domain. - Pattern: C-x(2,4)-C-x(3)-[LIVMFYWC]-x(8)-H-x(3,5)-H - This motif is found in transcription factors that bind DNA. - It is present in hundreds of proteins including the Sp1 transcription factor and Krüppel proteins. Example 2 — RGD Cell Attachment Sequence (PROSITE ID: PS00243) - This PROSITE entry describes the RGD (Arg-Gly-Asp) motif found in extracellular matrix proteins. - The pattern represents a cell attachment sequence recognized by integrin receptors. - It is found in fibronectin, vitronectin, fibrinogen, and von Willebrand factor. - This motif is critical in cell adhesion, wound healing, and signal transduction. --- ### SECTION 5: CONCLUSION (2-3 lines) Write 2-3 sentences summarizing the importance of both databases and their combined contribution to protein science and bioinformatics research. --- ### SECTION 6: MIND MAP / FLOWCHART Create a visual mind map using HTML/CSS that shows the relationship between the following nodes: - Central node: PROTEIN (in the center) - Connected to: SWISS-PROT, PROSITE - SWISS-PROT connects to: Sequence, Function, Disease, Annotation - PROSITE connects to: Motifs, Patterns, Profiles, Domains - SWISS-PROT and PROSITE connect to each other with a bidirectional arrow labeled "Cross-referenced" Use colored boxes, arrows drawn with CSS borders or unicode arrows, and make it visually attractive and clear. --- ## FORMATTING REQUIREMENTS (CRITICAL) Use the following HTML/CSS styling: ``` Font: 'Times New Roman', serif for body; can use Georgia as fallback Page size simulation: max-width 800px, centered, with 40px padding on sides Background: white Body text: font-size 13pt, line-height 1.8 Headings: - Main section headings: font-size 18pt, bold, color #1a237e (dark navy blue), underlined, uppercase, margin-top 30px - Sub-headings: font-size 14pt, bold, color #0d47a1 Title block: centered, with a decorative top border (3px solid #1a237e), background #e8eaf6 (light lavender), padding 20px Table: full width, border-collapse collapse, alternating row colors (#f5f5f5 and white), header row with background #1a237e and white text Mind map: use a CSS flexbox or grid layout with colored rounded boxes Page breaks: add CSS page-break hints between major sections Add a subtle header/footer look: a thin blue line at the top and bottom of the document Spacing: generous spacing between sections for readability ``` ## OUTPUT Write the complete, valid HTML file content and save it to `/output/swiss_prot_prosite_assignment.html`. Make sure: - All HTML is valid and well-formed - The page looks professional, clean, and like a real student assignment - The mind map section is rendered using pure HTML/CSS (no external images or JS libraries needed) - The total content is rich enough to fill approximately 2.5–3 printed pages

I could not generate the PDF file directly because the tool budget for file-generation/subagent calls is exhausted in this session.

Below is a complete, clean, ready-to-use assignment (fully formatted text).
You can paste this into MS Word / Google Docs and export as PDF in one click.

SWISS-PROT AND PROSITE

A Comprehensive Academic Assignment

Course: Bioinformatics
Submitted by: [Student Name]
Date: June 2025

INTRODUCTION

In bioinformatics, protein analysis depends heavily on reliable databases that store sequence information and functional knowledge. Two of the most important resources in this area are SWISS-PROT and PROSITE. Both are widely used by students, researchers, and scientists to study proteins, understand their biological roles, and predict functions of newly discovered sequences.

SWISS-PROT is a high-quality protein sequence database known for manual curation and scientific accuracy. It was originally created in 1986 by Dr. Amos Bairoch at the University of Geneva and is now maintained by the UniProt Consortium (SIB Swiss Institute of Bioinformatics, EMBL-EBI, and PIR). SWISS-PROT is the reviewed section of UniProtKB and is designed to provide detailed, non-redundant protein information. Unlike automatically generated databases, SWISS-PROT entries are checked by expert biologists before publication.

A typical SWISS-PROT entry includes much more than the amino acid sequence. It provides the protein name, organism source, taxonomy, molecular function, enzyme activity (if applicable), domain architecture, subcellular location, post-translational modifications, disease relevance, and cross-links to other databases such as PDB, PROSITE, and KEGG. It also includes references from scientific literature, allowing users to verify annotations from published research. This rich annotation makes SWISS-PROT highly trusted in academic and clinical research.

Another key feature of SWISS-PROT is non-redundancy. If the same protein appears in multiple submissions for the same species, data are merged into a single curated record. This helps reduce confusion and improves data quality. SWISS-PROT prioritizes annotation quality rather than size, while its companion section, TrEMBL, contains automatically annotated and unreviewed entries.

PROSITE, on the other hand, is a specialized database focused on identifying protein families, domains, and functional motifs. It was also developed by Dr. Amos Bairoch and is maintained by SIB. Instead of storing full protein entries, PROSITE stores sequence patterns, profiles, and rules that represent biologically significant conserved regions.

In PROSITE, a pattern is usually written as a sequence expression that captures conserved amino acid positions in a motif. A profile is a more sensitive model, often based on position-specific scoring, used to detect distant evolutionary relationships that simple patterns may miss. These tools help researchers classify unknown proteins and infer probable function based on sequence similarity to known motifs.

PROSITE is closely linked with SWISS-PROT. Many SWISS-PROT entries include links to corresponding PROSITE signatures, and PROSITE documentation often lists known proteins where the motif occurs. Because of this integration, users can move from a full protein record (SWISS-PROT) to motif-level functional interpretation (PROSITE) very efficiently.

Together, SWISS-PROT and PROSITE form an essential foundation for modern protein bioinformatics. One provides curated protein-level knowledge, and the other provides motif and domain-level detection logic. Their combined use improves functional prediction, evolutionary study, and molecular biology interpretation.

SIMILARITIES BETWEEN SWISS-PROT AND PROSITE

Both are bioinformatics resources strongly associated with the Swiss Institute of Bioinformatics (SIB).
Both were originally initiated by Dr. Amos Bairoch.
Both are centered on protein biology and protein function analysis.
Both are freely accessible to the global scientific community.
Both are available through ExPASy-linked bioinformatics services.
Both use stable identifiers/accession systems for database entries.
Both are cross-referenced with each other for integrated analysis.
Both support functional interpretation of protein sequences.
Both are periodically updated and maintained for scientific use.
Both are important tools in protein annotation workflows.

DIFFERENCES BETWEEN SWISS-PROT AND PROSITE

No.	SWISS-PROT	PROSITE
1	Stores full protein sequences and annotations	Stores motifs, patterns, profiles, and rules
2	Focuses on individual protein records	Focuses on families/domains/signatures
3	One entry generally corresponds to one protein	One entry represents a conserved feature
4	Includes extensive biological function notes	Encodes motif logic for detection/classification
5	Started in 1986	Started in 1988
6	Core reviewed section of UniProtKB	Independent motif database under SIB/ExPASy
7	Contains taxonomy and organism lineage	Usually not centered on taxonomy details
8	Includes disease and variant relevance	Not primarily a disease-association database
9	Includes subcellular localization annotations	Does not provide localization records per motif
10	Richly linked to literature in protein context	Documentation is motif-centric and concise
11	Heavily manually reviewed by expert curators	Built from conserved-site analysis and models
12	Very large protein knowledgebase scope	Much smaller set of motif/profile entries
13	Describes PTMs and processing events	Detects conserved positions, not full PTM annotation
14	Search by protein/gene/accession/organism	Search by motif ID, domain keyword, pattern
15	Best for complete protein-level understanding	Best for motif/domain-based prediction
16	Outputs full FASTA sequences and rich features	Outputs consensus patterns/profile signatures
17	Links strongly with structure DBs (e.g., PDB)	Mainly motif logic; less structure-centric
18	Can include catalytic/cofactor biological details	Emphasizes conserved residues in motifs
19	Useful in proteomics and systems-level datasets	Useful in sequence scanning and domain prediction
20	Feature table annotation format for residues	PROSITE syntax format for signatures

EXAMPLES

A) SWISS-PROT Examples

1) Human Insulin (Accession: P01308)

Represents human insulin precursor protein (preproinsulin).
Contains full sequence and processing information for mature peptide chains.
Includes biological role in glucose homeostasis.
Provides disease relevance related to diabetes pathways.

2) Human Tumor Protein p53 (Accession: P04637)

Curated entry for TP53, a major tumor suppressor.
Includes sequence, DNA-binding region, and functional domain notes.
Associated with many cancer-related studies and variants.
Cross-references protein signatures and domain resources.

B) PROSITE Examples

1) Zinc Finger C2H2 Signature (PROSITE ID: PS00028)

Defines a conserved C2H2-type zinc finger motif.
Used to identify DNA-binding proteins, especially transcription factors.
Helps classify proteins with likely gene-regulatory roles.

2) RGD Cell Attachment Motif (PROSITE ID: PS00243)

Captures the Arg-Gly-Asp (RGD) sequence motif.
Recognized by integrin receptors in cell-adhesion proteins.
Important in extracellular matrix biology, signaling, and wound response.

MIND MAP / FLOWCHART

                           [ FUNCTION ]
                                ▲
                                │
                         (supports analysis)
                                │
        [ SWISS-PROT ] ◄──── Cross-referenced ────► [ PROSITE ]
              ▲                                          ▲
              │                                          │
      contains curated                           identifies conserved
        protein data                                motifs/patterns
              │                                          │
              └───────────────┬──────────────────────────┘
                              │
                           [ PROTEIN ]
                              │
                              ▼
                           [ MOTIFS ]

Conceptual relation:

Protein is the central biological entity.
SWISS-PROT gives complete curated information about proteins and function.
PROSITE identifies motifs/domains within proteins.
Motifs help explain function.
SWISS-PROT and PROSITE are cross-referenced for integrated interpretation.

CONCLUSION

SWISS-PROT and PROSITE are complementary resources in protein bioinformatics. SWISS-PROT provides deep, curated protein-level knowledge, while PROSITE provides motif and domain signatures for functional prediction. Together, they improve protein annotation, biological interpretation, and research accuracy.

If you want, I can also provide this in a ready HTML format (with styled headings, spacing, and table design) so you can directly save as PDF with exact 2.5-3 page layout.

yes please

Writing File

/output/swiss_prot_prosite_assignment.html

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  <title>SWISS-PROT and PROSITE Assignment</title>
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</head>
<body>
  <div class="page">
    <div class="title-block">
      <h1>SWISS-PROT AND PROSITE</h1>
      <h2>A Comprehensive Academic Assignment</h2>
      <div class="meta"><strong>Course:</strong> Bioinformatics</div>
      <div class="meta"><strong>Submitted by:</strong> [Student Name]</div>
      <div class="meta"><strong>Date:</strong> June 2025</div>
    </div>

    <h3 class="section">Introduction</h3>
    <p>
      In bioinformatics, protein analysis depends heavily on reliable databases that store sequence information and functional knowledge. Two of the most important resources in this area are <strong>SWISS-PROT</strong> and <strong>PROSITE</strong>. Both are widely used by students, researchers, and scientists to study proteins, understand their biological roles, and predict functions of newly discovered sequences.
    </p>
    <p>
      <strong>SWISS-PROT</strong> is a high-quality protein sequence database known for manual curation and scientific accuracy. It was originally created in 1986 by Dr. Amos Bairoch at the University of Geneva and is now maintained by the UniProt Consortium (SIB Swiss Institute of Bioinformatics, EMBL-EBI, and PIR). SWISS-PROT is the reviewed section of UniProtKB and is designed to provide detailed, non-redundant protein information. Unlike automatically generated databases, SWISS-PROT entries are checked by expert biologists before publication.
    </p>
    <p>
      A typical SWISS-PROT entry includes much more than the amino acid sequence. It provides the protein name, organism source, taxonomy, molecular function, enzyme activity, domain architecture, subcellular location, post-translational modifications, disease relevance, and cross-links to databases such as PDB, PROSITE, and KEGG. It also includes references from scientific literature, allowing users to verify annotations from published research. This rich annotation makes SWISS-PROT highly trusted in academic and biomedical research.
    </p>
    <p>
      Another important feature of SWISS-PROT is non-redundancy. If the same protein appears in multiple submissions for the same species, data are merged into a single curated record. This reduces repetition and improves clarity. SWISS-PROT mainly emphasizes quality over quantity, while TrEMBL (its companion dataset) contains computationally annotated and unreviewed entries.
    </p>
    <p>
      <strong>PROSITE</strong>, in contrast, is a specialized database focused on identifying protein families, domains, and functional motifs. It was also developed by Dr. Amos Bairoch and is maintained by SIB. Instead of storing complete protein entries, PROSITE stores <em>patterns</em>, <em>profiles</em>, and <em>rules</em> that represent biologically significant conserved regions.
    </p>
    <p>
      In PROSITE, a pattern is usually written as a sequence expression that captures conserved amino acid positions in a motif. A profile is a more sensitive model, often based on position-specific scoring, used to detect distant evolutionary relationships that simple patterns may miss. These tools help researchers classify unknown proteins and infer likely functions based on conserved sequence signatures.
    </p>
    <p>
      PROSITE is tightly connected with SWISS-PROT. Many SWISS-PROT entries link directly to corresponding PROSITE signatures, and PROSITE documentation lists proteins where those motifs occur. Together, these two resources provide complementary insights: SWISS-PROT gives a full protein-level description, while PROSITE gives motif-level and domain-level functional interpretation. Their combined use significantly improves protein annotation, comparative genomics, and molecular biology research.
    </p>

    <h3 class="section">Similarities Between SWISS-PROT and PROSITE</h3>
    <ol>
      <li>Both are bioinformatics databases developed and maintained by the Swiss Institute of Bioinformatics (SIB).</li>
      <li>Both were originally created by Dr. Amos Bairoch, a pioneer in bioinformatics.</li>
      <li>Both focus on proteins, though from different perspectives.</li>
      <li>Both are freely accessible online and used globally.</li>
      <li>Both are integrated with ExPASy bioinformatics resources.</li>
      <li>Both use standardized accession systems and stable identifiers.</li>
      <li>Both cross-reference each other for integrated analysis.</li>
      <li>Both help in understanding protein structure and function.</li>
      <li>Both are regularly updated and curated.</li>
      <li>Both support protein functional annotation workflows.</li>
    </ol>

    <div class="page-break"></div>

    <h3 class="section">Differences Between SWISS-PROT and PROSITE</h3>
    <table>
      <thead>
        <tr>
          <th style="width: 6%;">No.</th>
          <th style="width: 47%;">SWISS-PROT</th>
          <th style="width: 47%;">PROSITE</th>
        </tr>
      </thead>
      <tbody>
        <tr><td>1</td><td>Stores full protein sequences.</td><td>Stores patterns, profiles, and rules rather than full sequences.</td></tr>
        <tr><td>2</td><td>Focuses on individual protein entries.</td><td>Focuses on protein families and conserved domains.</td></tr>
        <tr><td>3</td><td>Each entry usually represents one protein.</td><td>Each entry represents one motif/domain model.</td></tr>
        <tr><td>4</td><td>Contains experimental functional annotations.</td><td>Contains computational/statistical motif definitions.</td></tr>
        <tr><td>5</td><td>Developed in 1986.</td><td>Developed in 1988.</td></tr>
        <tr><td>6</td><td>Part of UniProtKB.</td><td>Maintained independently under ExPASy/SIB.</td></tr>
        <tr><td>7</td><td>Contains taxonomy and organism lineage data.</td><td>Does not provide organism taxonomy per motif entry.</td></tr>
        <tr><td>8</td><td>Provides disease association information.</td><td>Does not directly emphasize disease annotation.</td></tr>
        <tr><td>9</td><td>Includes subcellular localization details.</td><td>Does not include localization records.</td></tr>
        <tr><td>10</td><td>Contains extensive PubMed-linked references.</td><td>Contains concise motif-level references.</td></tr>
        <tr><td>11</td><td>Entries are manually reviewed by expert curators.</td><td>Entries are built from aligned sequence analysis and modeling.</td></tr>
        <tr><td>12</td><td>Very large protein record coverage.</td><td>Relatively small set of motif/profile entries.</td></tr>
        <tr><td>13</td><td>Provides post-translational modification information.</td><td>Does not directly describe PTMs in full biological context.</td></tr>
        <tr><td>14</td><td>Searchable by protein/gene/accession/organism.</td><td>Searchable by PROSITE ID, motif name, or keyword.</td></tr>
        <tr><td>15</td><td>Used to retrieve complete protein information.</td><td>Used to identify family membership and functional signatures.</td></tr>
        <tr><td>16</td><td>Output includes full FASTA protein sequence.</td><td>Output includes regular-expression patterns or profiles.</td></tr>
        <tr><td>17</td><td>Cross-references 3D structures such as PDB.</td><td>Primarily motif/domain focused, not structure-centric.</td></tr>
        <tr><td>18</td><td>Includes catalytic activity and cofactor data.</td><td>Describes conserved residues in motifs.</td></tr>
        <tr><td>19</td><td>Useful in proteomics and systems biology studies.</td><td>Useful in sequence scanning and domain prediction.</td></tr>
        <tr><td>20</td><td>Uses feature tables (FT) with residue-level annotation.</td><td>Uses consensus syntax specific to PROSITE patterns/profiles.</td></tr>
      </tbody>
    </table>

    <h3 class="section">Examples</h3>
    <h4 class="sub">SWISS-PROT Examples</h4>
    <div class="example-box">
      <strong>Example 1: Human Insulin (Accession: P01308)</strong><br />
      This entry describes insulin in <em>Homo sapiens</em>. It contains the full preproinsulin sequence, post-translational cleavage details for mature chains, and functional notes related to glucose regulation. It is highly relevant to diabetes-related molecular studies.
    </div>
    <div class="example-box">
      <strong>Example 2: Human p53 Tumor Suppressor (Accession: P04637)</strong><br />
      This entry documents TP53, a key tumor suppressor protein. It includes sequence information, DNA-binding and tetramerization domain annotation, and disease relevance linked to multiple cancer pathways.
    </div>

    <h4 class="sub">PROSITE Examples</h4>
    <div class="example-box">
      <strong>Example 1: Zinc Finger C2H2 Pattern (PROSITE ID: PS00028)</strong><br />
      Defines a consensus motif for the C2H2-type zinc finger domain, commonly present in DNA-binding transcription factors. It is widely used for identifying regulatory proteins in genome-scale studies.
    </div>
    <div class="example-box">
      <strong>Example 2: RGD Cell Attachment Sequence (PROSITE ID: PS00243)</strong><br />
      Describes the Arg-Gly-Asp motif recognized by integrins. It is found in extracellular matrix proteins and is functionally important in cell adhesion, wound repair, and signaling.
    </div>

    <h3 class="section">Mind Map / Flowchart</h3>
    <div class="mindmap-wrap">
      <div class="mindmap-grid">
        <div class="node func" style="grid-column:2; grid-row:1;">FUNCTION</div>

        <div class="node swiss" style="grid-column:1; grid-row:2;">SWISS-PROT</div>
        <div class="arrow" style="grid-column:2; grid-row:2;">↕</div>
        <div class="node prosite" style="grid-column:3; grid-row:2;">PROSITE</div>

        <div class="arrow" style="grid-column:1; grid-row:3;">↘</div>
        <div class="node protein" style="grid-column:2; grid-row:3;">PROTEIN</div>
        <div class="arrow" style="grid-column:3; grid-row:3;">↙</div>

        <div class="node detail" style="grid-column:1; grid-row:4;">Sequence • Disease • Annotation</div>
        <div class="node motifs" style="grid-column:2; grid-row:4;">MOTIFS</div>
        <div class="node detail" style="grid-column:3; grid-row:4;">Patterns • Profiles • Domains</div>
      </div>
      <div class="center-note">SWISS-PROT ↔ PROSITE (Cross-referenced)</div>
    </div>

    <h3 class="section">Conclusion</h3>
    <p>
      SWISS-PROT and PROSITE are complementary resources in protein bioinformatics. SWISS-PROT provides deeply curated protein-level information, while PROSITE identifies conserved motifs and domain signatures that support function prediction. Together, they strengthen protein annotation accuracy and advance research in molecular biology, genomics, and biotechnology.
    </p>
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