Arrange this Vitamin D Metabolism: 1. Endogenous synthesis in skin 2. sequential hydroxylations in the liver and kidneys to form calcitriol (1,25-(OH) 2D 3) 3. its role in Calcium homeostasis 4. deficiency disorders Fatty Acids: 1. Activation 2. mitochondrial transport via the carnitine shuttle 3. reactions of the spiral pathway, 4. energetic calculations for palmitic acid (16C) 5. associated metabolic blocks. Vitamin B12: 1. Intrinsic factor-mediated absorption of Vit B12 2. Intrinsic factor-mediated absorption of transport of Vit B12 3. biochemical role as a coenzyme 4. neurological manifestations of deficiency 5. the molecular mechanism of the folate trap. Cholesterol Biosynthesis: 1. Intracellular pathways starting from acetyl-CoA 2. the rate-limiting step catalyzed by HMG-CoA reductase 3. mechanisms of feedback regulation 4. products derived from cholesterol. Glycolysis: 1. Complete aerobic and anaerobic pathways 2. rate-limiting steps 3. hormonal regulation 4. energetic calculations, 5. the clinical significance of the Rapoport-Luebering shunt TCA Cycle: 1. Detailed steps 2. Regulatory checkpoints 3. Energetics (ATP yield) 4. Amphibolic and anaplerotic roles in intermediary metabolism Enzyme Inhibition: 1.Detailed difference between competitive and non-competitive inhibition 2. including Lineweaver-Burk plots, 3. changes in Km and Vmax 4. clinical examples like statins and aspirin. Oxidative Phosphorylation: 1. Complete architecture of the mitochondrial respiratory chain (Complexes I-V) 2. chemiosmotic theory of ATP synthesis 3. The clinical impact of inhibitors and uncouplers. Protein Biosynthesis: 1. Detailed phases of translation in prokaryotes, 2. functions of initiation/elongation factors. 3. codon-anticodon recognition (wobble hypothesis) 4. post-translational modifications Acid-Base Regulation: 1. Detailed renal and respiratory buffer mechanisms, 2. the Henderson-Hasselbalch equation, 3. the compensatory responses in metabolic and respiratory acidosis/alkalosis. Bilirubin Metabolism: 1. Complete pathway of heme catabolism in reticuloendothelial cells 2. transport in blood, 3. hepatic conjugation, 4. testinal excretion, 5. differential diagnosis of pre-hepatic,hepatic, and post-hepatic jaundice. Urea Cycle: 1. Detailed enzymatic steps in the mitochondria and cytosol 2. biochemical regulation, 3. connection with the TCA cycle (Kreb's bicycle) 4. metabolic features of hyperammonemia and genetic urea cycle defects

Reading File
Asking for Preferences

Make pdf

Asking for Preferences

Only pdf of this words

Reading File
Running Command

mkdir -p /tmp/workspace/biochem-notes && ls /tmp/workspace/

Writing File

~/biochem-notes/generate_pdf.py

from reportlab.lib.pagesizes import A4
from reportlab.lib.styles import getSampleStyleSheet, ParagraphStyle
from reportlab.lib.units import cm
from reportlab.lib import colors
from reportlab.platypus import SimpleDocTemplate, Paragraph, Spacer, HRFlowable
from reportlab.lib.enums import TA_LEFT, TA_CENTER

output_path = "/tmp/workspace/biochem-notes/Biochemistry_Topics.pdf"

doc = SimpleDocTemplate(
    output_path,
    pagesize=A4,
    rightMargin=2*cm,
    leftMargin=2*cm,
    topMargin=2.5*cm,
    bottomMargin=2*cm
)

styles = getSampleStyleSheet()

# Custom styles
title_style = ParagraphStyle(
    'MainTitle',
    parent=styles['Title'],
    fontSize=20,
    textColor=colors.HexColor('#1a237e'),
    spaceAfter=6,
    alignment=TA_CENTER,
    fontName='Helvetica-Bold'
)

subtitle_style = ParagraphStyle(
    'Subtitle',
    parent=styles['Normal'],
    fontSize=10,
    textColor=colors.HexColor('#5c6bc0'),
    spaceAfter=20,
    alignment=TA_CENTER,
    fontName='Helvetica'
)

topic_style = ParagraphStyle(
    'TopicTitle',
    parent=styles['Heading1'],
    fontSize=14,
    textColor=colors.white,
    backColor=colors.HexColor('#1a237e'),
    spaceBefore=16,
    spaceAfter=8,
    leftIndent=-0.5*cm,
    rightIndent=-0.5*cm,
    borderPad=6,
    fontName='Helvetica-Bold'
)

point_style = ParagraphStyle(
    'Point',
    parent=styles['Normal'],
    fontSize=11,
    textColor=colors.HexColor('#212121'),
    leftIndent=0.8*cm,
    spaceBefore=4,
    spaceAfter=4,
    fontName='Helvetica',
    leading=16
)

number_style = ParagraphStyle(
    'Number',
    parent=styles['Normal'],
    fontSize=11,
    textColor=colors.HexColor('#1a237e'),
    leftIndent=0.2*cm,
    spaceBefore=4,
    spaceAfter=2,
    fontName='Helvetica-Bold',
    leading=16
)

# Topic header with colored background using a styled paragraph
def topic_header(text):
    return Paragraph(
        f'<para backColor="#1a237e" textColor="white" borderPad="6"> &nbsp; {text} </para>',
        ParagraphStyle(
            'TopicHeader',
            parent=styles['Normal'],
            fontSize=14,
            textColor=colors.white,
            spaceBefore=18,
            spaceAfter=10,
            fontName='Helvetica-Bold',
            leading=20
        )
    )

def numbered_point(num, text):
    items = []
    items.append(Paragraph(
        f'<font color="#1565C0"><b>{num}.</b></font> &nbsp; {text}',
        point_style
    ))
    return items

# ---- Content ----
topics = [
    {
        "title": "Vitamin D Metabolism",
        "points": [
            "Endogenous synthesis in skin",
            "Sequential hydroxylations in the liver and kidneys to form calcitriol (1,25-(OH)\u2082D\u2083)",
            "Its role in calcium homeostasis",
            "Deficiency disorders",
        ]
    },
    {
        "title": "Fatty Acids",
        "points": [
            "Activation",
            "Mitochondrial transport via the carnitine shuttle",
            "Reactions of the spiral pathway",
            "Energetic calculations for palmitic acid (16C)",
            "Associated metabolic blocks",
        ]
    },
    {
        "title": "Vitamin B12",
        "points": [
            "Intrinsic factor-mediated absorption of Vit B12",
            "Intrinsic factor-mediated absorption of transport of Vit B12",
            "Biochemical role as a coenzyme",
            "Neurological manifestations of deficiency",
            "The molecular mechanism of the folate trap",
        ]
    },
    {
        "title": "Cholesterol Biosynthesis",
        "points": [
            "Intracellular pathways starting from acetyl-CoA",
            "The rate-limiting step catalyzed by HMG-CoA reductase",
            "Mechanisms of feedback regulation",
            "Products derived from cholesterol",
        ]
    },
    {
        "title": "Glycolysis",
        "points": [
            "Complete aerobic and anaerobic pathways",
            "Rate-limiting steps",
            "Hormonal regulation",
            "Energetic calculations",
            "The clinical significance of the Rapoport-Luebering shunt",
        ]
    },
    {
        "title": "TCA Cycle",
        "points": [
            "Detailed steps",
            "Regulatory checkpoints",
            "Energetics (ATP yield)",
            "Amphibolic and anaplerotic roles in intermediary metabolism",
        ]
    },
    {
        "title": "Enzyme Inhibition",
        "points": [
            "Detailed difference between competitive and non-competitive inhibition",
            "Including Lineweaver-Burk plots",
            "Changes in Km and Vmax",
            "Clinical examples like statins and aspirin",
        ]
    },
    {
        "title": "Oxidative Phosphorylation",
        "points": [
            "Complete architecture of the mitochondrial respiratory chain (Complexes I–V)",
            "Chemiosmotic theory of ATP synthesis",
            "The clinical impact of inhibitors and uncouplers",
        ]
    },
    {
        "title": "Protein Biosynthesis",
        "points": [
            "Detailed phases of translation in prokaryotes",
            "Functions of initiation/elongation factors",
            "Codon-anticodon recognition (wobble hypothesis)",
            "Post-translational modifications",
        ]
    },
    {
        "title": "Acid-Base Regulation",
        "points": [
            "Detailed renal and respiratory buffer mechanisms",
            "The Henderson-Hasselbalch equation",
            "The compensatory responses in metabolic and respiratory acidosis/alkalosis",
        ]
    },
    {
        "title": "Bilirubin Metabolism",
        "points": [
            "Complete pathway of heme catabolism in reticuloendothelial cells",
            "Transport in blood",
            "Hepatic conjugation",
            "Intestinal excretion",
            "Differential diagnosis of pre-hepatic, hepatic, and post-hepatic jaundice",
        ]
    },
    {
        "title": "Urea Cycle",
        "points": [
            "Detailed enzymatic steps in the mitochondria and cytosol",
            "Biochemical regulation",
            "Connection with the TCA cycle (Kreb's bicycle)",
            "Metabolic features of hyperammonemia and genetic urea cycle defects",
        ]
    },
]

story = []

# Title
story.append(Paragraph("Biochemistry", title_style))
story.append(Paragraph("Key Topics &amp; Subtopics", subtitle_style))
story.append(HRFlowable(width="100%", thickness=2, color=colors.HexColor('#1a237e'), spaceAfter=10))

for topic in topics:
    # Topic title with colored box
    story.append(Paragraph(
        f'  {topic["title"]}',
        ParagraphStyle(
            'TopicBox',
            parent=styles['Normal'],
            fontSize=14,
            textColor=colors.white,
            backColor=colors.HexColor('#1a237e'),
            spaceBefore=18,
            spaceAfter=8,
            fontName='Helvetica-Bold',
            leading=22,
            leftIndent=0,
            borderPad=5,
        )
    ))
    for i, point in enumerate(topic["points"], 1):
        story.append(Paragraph(
            f'<font color="#1565C0"><b>{i}.</b></font>&nbsp;&nbsp;{point}',
            point_style
        ))
    story.append(HRFlowable(width="100%", thickness=0.5, color=colors.HexColor('#c5cae9'), spaceAfter=4, spaceBefore=8))

doc.build(story)
print(f"PDF created: {output_path}")
Running Command

python /tmp/workspace/biochem-notes/generate_pdf.py

Your PDF is ready! It contains all 12 topics with their numbered subtopics, formatted with a clean blue-themed design.

Biochemistry Topics

PDF Document · PDF

Now make simmilar pdf of these topics Inborn Errors of Aromatic Amino Acids: 1. Pathophysiology and diagnostic tests for Phenylketonuria (PKU) 2. Pathophysiology and diagnostic tests for Alkaptonuria 3. Pathophysiology and diagnostic tests for Albinism Gout: 1. Purine degradation pathway, 2. etiology of primary and secondary hyperuricemia 3. clinical findings of hyperuricemia 4. molecular mechanism of Allopurinol therapy. Lipoproteins & Dyslipidemias: 1. Detailed assembly and clearance of chylomicrons 2. VLDL 3. LDL 4. HDL 5. reverse cholesterol transport 6. the molecular basis of familial hypercholesterolemia. Porphyrias: 1. Enzyme defects 2. clinical features of Acute Intermittent Porphyria (AIP) 3. clinical features of Porphyria Cutanea Tarda (PCT). HMP Shunt: 1. Non-oxidative and oxidative phases 2. physiological significance of NADPH, 3. the hemolytic anemia seen in G6PD deficiency. Ketone Bodies: 1. Steps of ketogenesis 2. utilization in extrahepatic tissues (ketolysis) 3. the metabolic acidosis of diabetic ketoacidosis Isoenzymes: 1. Biochemical features and diagnostic use of Lactate Dehydrogenase (LDH) 2. Biochemical features and diagnostic use of Creatine Kinase (CK) 3. Biochemical features and diagnostic use of Alkaline Phosphatase (ALP) Fluid Mosaic Model: 1. Structure of biological membranes 2. active and passive transport mechanisms, 3. receptor-mediated endocytosis. Gluconeogenesis: 1. Crucial bypass reactions 2. substrates 3. reciprocal regulation with glycolysis 4. The function of the Cori cycle. Dietary Fibers: 1. Classification (soluble vs. insoluble) 2. physiological effects and their clinical importance in managing diabetes and hypercholesterolemia. Iron Absorption: 1. Dietary sources 2. factors affecting absorption in the gut 3. mucosal block theory, 4. transport by transferrin, 5. storage as ferritin. Scurvy and Rickets: 1. Molecular basis of Vitamin C-dependent collagen hydroxylation, 2. the impact of Vitamin D deficiency on bone mineralization

Running Command

ls /tmp/workspace/biochem-notes/

Writing File

~/biochem-notes/generate_pdf2.py

from reportlab.lib.pagesizes import A4
from reportlab.lib.styles import getSampleStyleSheet, ParagraphStyle
from reportlab.lib.units import cm
from reportlab.lib import colors
from reportlab.platypus import SimpleDocTemplate, Paragraph, Spacer, HRFlowable
from reportlab.lib.enums import TA_LEFT, TA_CENTER

output_path = "/tmp/workspace/biochem-notes/Biochemistry_Topics_2.pdf"

doc = SimpleDocTemplate(
    output_path,
    pagesize=A4,
    rightMargin=2*cm,
    leftMargin=2*cm,
    topMargin=2.5*cm,
    bottomMargin=2*cm
)

styles = getSampleStyleSheet()

title_style = ParagraphStyle(
    'MainTitle',
    parent=styles['Title'],
    fontSize=20,
    textColor=colors.HexColor('#1a237e'),
    spaceAfter=6,
    alignment=TA_CENTER,
    fontName='Helvetica-Bold'
)

subtitle_style = ParagraphStyle(
    'Subtitle',
    parent=styles['Normal'],
    fontSize=10,
    textColor=colors.HexColor('#5c6bc0'),
    spaceAfter=20,
    alignment=TA_CENTER,
    fontName='Helvetica'
)

point_style = ParagraphStyle(
    'Point',
    parent=styles['Normal'],
    fontSize=11,
    textColor=colors.HexColor('#212121'),
    leftIndent=0.8*cm,
    spaceBefore=4,
    spaceAfter=4,
    fontName='Helvetica',
    leading=16
)

topics = [
    {
        "title": "Inborn Errors of Aromatic Amino Acids",
        "points": [
            "Pathophysiology and diagnostic tests for Phenylketonuria (PKU)",
            "Pathophysiology and diagnostic tests for Alkaptonuria",
            "Pathophysiology and diagnostic tests for Albinism",
        ]
    },
    {
        "title": "Gout",
        "points": [
            "Purine degradation pathway",
            "Etiology of primary and secondary hyperuricemia",
            "Clinical findings of hyperuricemia",
            "Molecular mechanism of Allopurinol therapy",
        ]
    },
    {
        "title": "Lipoproteins & Dyslipidemias",
        "points": [
            "Detailed assembly and clearance of chylomicrons",
            "VLDL",
            "LDL",
            "HDL",
            "Reverse cholesterol transport",
            "The molecular basis of familial hypercholesterolemia",
        ]
    },
    {
        "title": "Porphyrias",
        "points": [
            "Enzyme defects",
            "Clinical features of Acute Intermittent Porphyria (AIP)",
            "Clinical features of Porphyria Cutanea Tarda (PCT)",
        ]
    },
    {
        "title": "HMP Shunt",
        "points": [
            "Non-oxidative and oxidative phases",
            "Physiological significance of NADPH",
            "The hemolytic anemia seen in G6PD deficiency",
        ]
    },
    {
        "title": "Ketone Bodies",
        "points": [
            "Steps of ketogenesis",
            "Utilization in extrahepatic tissues (ketolysis)",
            "The metabolic acidosis of diabetic ketoacidosis",
        ]
    },
    {
        "title": "Isoenzymes",
        "points": [
            "Biochemical features and diagnostic use of Lactate Dehydrogenase (LDH)",
            "Biochemical features and diagnostic use of Creatine Kinase (CK)",
            "Biochemical features and diagnostic use of Alkaline Phosphatase (ALP)",
        ]
    },
    {
        "title": "Fluid Mosaic Model",
        "points": [
            "Structure of biological membranes",
            "Active and passive transport mechanisms",
            "Receptor-mediated endocytosis",
        ]
    },
    {
        "title": "Gluconeogenesis",
        "points": [
            "Crucial bypass reactions",
            "Substrates",
            "Reciprocal regulation with glycolysis",
            "The function of the Cori cycle",
        ]
    },
    {
        "title": "Dietary Fibers",
        "points": [
            "Classification (soluble vs. insoluble)",
            "Physiological effects and their clinical importance in managing diabetes and hypercholesterolemia",
        ]
    },
    {
        "title": "Iron Absorption",
        "points": [
            "Dietary sources",
            "Factors affecting absorption in the gut",
            "Mucosal block theory",
            "Transport by transferrin",
            "Storage as ferritin",
        ]
    },
    {
        "title": "Scurvy and Rickets",
        "points": [
            "Molecular basis of Vitamin C-dependent collagen hydroxylation",
            "The impact of Vitamin D deficiency on bone mineralization",
        ]
    },
]

story = []

# Title
story.append(Paragraph("Biochemistry", title_style))
story.append(Paragraph("Key Topics &amp; Subtopics", subtitle_style))
story.append(HRFlowable(width="100%", thickness=2, color=colors.HexColor('#1a237e'), spaceAfter=10))

for topic in topics:
    story.append(Paragraph(
        f'  {topic["title"]}',
        ParagraphStyle(
            'TopicBox',
            parent=styles['Normal'],
            fontSize=14,
            textColor=colors.white,
            backColor=colors.HexColor('#1a237e'),
            spaceBefore=18,
            spaceAfter=8,
            fontName='Helvetica-Bold',
            leading=22,
            leftIndent=0,
            borderPad=5,
        )
    ))
    for i, point in enumerate(topic["points"], 1):
        story.append(Paragraph(
            f'<font color="#1565C0"><b>{i}.</b></font>&nbsp;&nbsp;{point}',
            point_style
        ))
    story.append(HRFlowable(width="100%", thickness=0.5, color=colors.HexColor('#c5cae9'), spaceAfter=4, spaceBefore=8))

doc.build(story)
print(f"PDF created: {output_path}")
Running Command

python /tmp/workspace/biochem-notes/generate_pdf2.py

Done! Same style as the first one.

Biochemistry Topics 2

PDF Document · PDF

This is a shared conversation. Sign in to Orris to start your own chat.