Diagram Examples from Real Visitor Prompts

Pengunjung | Sistem | Database Alurnya: Pengunjung → Membuka halaman Login → Memasukkan Email dan Password → Menekan tombol Login Sistem → Menerima data login → Melakukan validasi Email dan Password Database → Mencari data pengguna berdasarkan Email → Mengambil data akun → Mengembalikan hasil pemeriksaan ke Sistem Sistem → Decision: Data Login Valid? Jika Tidak → Menampilkan pesan Email atau Password salah → Kembali ke halaman Login Jika Ya → Membuat session login → Mengarahkan pengguna ke Dashboard

Create a world-class consulting style Finance Transformation Framework similar to the visual quality used by Deloitte, Accenture, PwC, EY and KPMG presentations. This is NOT a flowchart. Design it as a premium executive infographic with a modern business consulting style. Use a layered architecture from bottom to top. Layer 1 (Foundation) Corporate Governance Internal Controls Risk Management Compliance Finance Policies Delegation of Authority Standard Operating Procedures Layer 2 Finance Operating Model Shared Services Global Business Services Center of Excellence Business Finance Layer 3 End-to-End Finance Processes Procure-to-Pay (P2P) Order-to-Cash (O2C) Record-to-Report (R2R) Treasury Financial Planning & Analysis Tax Master Data Management Layer 4 Digital Finance Platform ERP Workflow Automation Robotic Process Automation Artificial Intelligence Machine Learning Optical Character Recognition Finance Data Lake Master Data Platform API Integration Layer 5 Analytics & Decision Intelligence Executive Dashboards Predictive Analytics Financial KPIs Business Intelligence AI Insights Scenario Planning Top Layer Business Outcomes Higher Profitability Improved Working Capital Reduced Financial Risk Faster Close Better Compliance Improved Customer Experience Scalable Finance Function Design requirements Use rounded modern rectangles. Use premium consulting colors. Use subtle gradients. Use clean typography. Use professional business icons. Maintain generous white space. No clipart. No cartoon style. No shadows. Minimal text. Balanced composition. Presentation quality suitable for a Fortune 500 CFO presentation. The final diagram should look like a proprietary consulting framework rather than a software architecture.

A three-generation pedigree chart showing autosomal dominant inheritance of Huntington disease, with the grandfather affected, two carrier children, and one affected grandchild

[8/12, 2:00 AM] Kajuly: One of the most studied examples of inter-organ crosstalk is the gut–brain axis. This term describes the two-way communication between the gastrointestinal tract and the brain. The gut contains trillions of microorganisms, collectively called the gut microbiota. These microorganisms are involved in digestion, metabolism, immune regulation, and the production of biologically active molecules. The gut can communicate with the brain through several pathways: Gut microbiota → microbial metabolites → blood → brain Gut → immune system → inflammatory signals → brain Gut → enteric nervous system → vagus nerve → brain Microorganisms can produce substances such as short-chain fatty acids (SCFAs), which are produced when certain bacteria break down dietary fiber. These molecules can influence intestinal cells, immune responses, metabolism, and potentially brain function. The communication also works in the opposite direction. The brain can influence the gut through the autonomic nervous system. Stress, neurological disease, medications, and changes in nervous system function can alter intestinal movement, secretion, and other gastrointestinal functions. An imbalance in the gut microbiota is called dysbiosis. Dysbiosis has been investigated in several neurodegenerative diseases, including ALS, FTD, Lewy body diseases, and MSA. However, finding differences in the microbiome does not prove that these differences cause neurodegeneration. Diet, medication, age, physical activity, constipation, and the disease itself can also change the microbiome. Generate a clean text free image with no description and spelling errors [8/12, 2:00 AM] Kajuly: add no extra info too

Start all signals at 0 besides LT03 A signal SV06 which and its timer SV06T which asserts after a 3 cycle delay if 51P or 51G1 asserts. Have 51P assert after 10 cycles for the duration of 20 cycles A signal SV05 and its dropout deay 3600 cycles, the dropout indicates that the signal SV05T will remain high as SV05 is high, if SV05 deasserts SV05T will dropout after 3600 cycles. The signal logic is R_TRIG SV06T AND (LT03 OR LT04) # TRIGGER FOR OVERCURRENT (RESET COUNTER WHEN TIMED OUT) SECTIONALIZER COUNT Provide LT03 signal as passivley active

A signal SV06 which and its timer SV06T which asserts after a 3 cycle delay if 51P or 51G1 asserts. Have 51P assert after 10 cycles for the duration of 20 cycles A signal SV05 and its dropout deay 3600 cycles, the dropout indicates that the signal SV05T will remain high as SV05 is high, if SV05 deasserts SV05T will dropout after 3600 cycles. The signal logic is R_TRIG SV06T AND (LT03 OR LT04) # TRIGGER FOR OVERCURRENT (RESET COUNTER WHEN TIMED OUT) SECTIONALIZER COUNT Provide LT03 signal as passivley active

A signal SV06 which and its timer SV06T which asserts after a 3 cycle delay if 51P or 51G1 asserts. Have 51P assert after 10 cycles for the duration of 20 cycles A signal SV05 and its dropout deay 3600 cycles. The signal logic is R_TRIG SV06T AND (LT03 OR LT04) # TRIGGER FOR OVERCURRENT (RESET COUNTER WHEN TIMED OUT) SECTIONALIZER COUNT Provide LT03 signal as passivley active

A signal SV06 which asserts immediately and its timer SV06T which asserts after a 3 cycle delay if 51P or 51G1 asserts. Have 51P assert after 10 cycles for the duration of 20 cycles A signal SV05 and its dropout deay 3600 cycles. The signal logic is R_TRIG SV06T AND (LT03 OR LT04) # TRIGGER FOR OVERCURRENT (RESET COUNTER WHEN TIMED OUT) SECTIONALIZER COUNT Provide LT03 signal as passivley active

A signal SV06 which asserts after a 3 cycle delay if 51P or 51G1 asserts. Have 51P assert after 10 cycles for the duration of 20 cycles

A signal SV06 which asserts if 51P or 51G1 asserts. Have 51P assert after 10 cycles for the duration of 20 cycles

for the issue "My phone is too slow, and its battery can’t hold enough charge because it is old." We’ll use a tool called an annotated causal loop diagram to explore and understand the breadth of the problem at the system level, expanding the system boundary as needed and ensuring that our solution addresses leverage points for improvement. Because the diagram is two dimensional, it can be more effective than text for communicating for a complex, loopy story. Identify one specific aspect of the problem to solve. Choose a central variable that represents that specific aspect of the problem. (1 mark) Add 1-2 affecting variables and link them to the central variable. (1 mark) Add 1-2 affected variables and link them to the central variable. (1 mark) Add 1-2 links from the affected variables to the affecting variables. (1 mark) i wanted it created to be as clear as possible with no overlap

for the issue "My phone is too slow, and its battery can’t hold enough charge because it is old." We’ll use a tool called an annotated causal loop diagram to explore and understand the breadth of the problem at the system level, expanding the system boundary as needed and ensuring that our solution addresses leverage points for improvement. Because the diagram is two dimensional, it can be more effective than text for communicating for a complex, loopy story. Identify one specific aspect of the problem to solve. Choose a central variable that represents that specific aspect of the problem. (1 mark) Add 1-2 affecting variables and link them to the central variable. (1 mark) Add 1-2 affected variables and link them to the central variable. (1 mark) Add 1-2 links from the affected variables to the affecting variables. (1 mark)

Sensor Data ↓ Filtering & Calibration ↓ Feature Extraction ↓ Baseline Comparison ↓ Health Index ↓ Normal / Watch / Alert

Sensor Data ↓ Filtering & Calibration ↓ Feature Extraction ↓ Baseline Comparison ↓ Health Index ↓ Normal / Watch / AlertA flowchart of a new-user onboarding flow from signup to first activation, with a verification branch

230 V / 12 V TRANSFORMER │ ┌─────────────────┼─────────────────┐ ↓ ↓ ↓ Temperature Current Vibration Sensor Sensor Sensor │ │ │ Ambient Sensor │ │ │ │ │ └─────────────────┼─────────────────┘ ↓ ESP32 ↓ Signal Processing ↓ ┌──────────────────┼─────────────────┐ ↓ ↓ ↓ Temperature Load % Vibration Rise Analysis Analysis RMS/FFT └──────────────────┼─────────────────┘ ↓ Sensor Fusion ↓ HEALTH INDEX ↓ Normal / Watch / Alert ↓ Wi-Fi ↓ ThingSpeak ↓ Dashboard ↓ Staff Monitoring A decision tree for whether a startup should build, buy, or partner for a new feature

230 V / 12 V TRANSFORMER │ ┌─────────────────┼─────────────────┐ ↓ ↓ ↓ Temperature Current Vibration Sensor Sensor Sensor │ │ │ Ambient Sensor │ │ │ │ │ └─────────────────┼─────────────────┘ ↓ ESP32 ↓ Signal Processing ↓ ┌──────────────────┼─────────────────┐ ↓ ↓ ↓ Temperature Load % Vibration Rise Analysis Analysis RMS/FFT └──────────────────┼─────────────────┘ ↓ Sensor Fusion ↓ HEALTH INDEX ↓ Normal / Watch / Alert ↓ Wi-Fi ↓ ThingSpeak ↓ Dashboard ↓ Staff MonitoringA flowchart of a new-user onboarding flow from signup to first activation, with a verification branch

230 V / 12 V TRANSFORMER │ ┌─────────────────┼─────────────────┐ ↓ ↓ ↓ Temperature Current Vibration Sensor Sensor Sensor │ │ │ Ambient Sensor │ │ │ │ │ └─────────────────┼─────────────────┘ ↓ ESP32 ↓ Signal Processing ↓ ┌──────────────────┼─────────────────┐ ↓ ↓ ↓ Temperature Load % Vibration Rise Analysis Analysis RMS/FFT └──────────────────┼─────────────────┘ ↓ Sensor Fusion ↓ HEALTH INDEX ↓ Normal / Watch / Alert ↓ Wi-Fi ↓ ThingSpeak ↓ Dashboard ↓ Staff Monitoring

A BPMN diagram of a tech hiring pipeline across recruiter, hiring manager, and offer lanes

An event-driven process chain for purchase approval from requisition received through manager approval, procurement, and order placed

kepler the scientists 3 laws

The circuit consists of a 230 V, 50 Hz AC supply, fuse, relay, pump motor, resistor (R), capacitor (C), and three water-level sensing points: Low Level, Start Level, and High Level. Create the flowchart showing the operating sequence: Start → Check water level → Is water below the start/low level? → If YES, energize the relay and switch ON the pump motor → Continue monitoring the water level → Has the water reached the high level? → If NO, keep the pump ON → If YES, de-energize the relay and switch OFF the pump → Continue monitoring the water level → Repeat. Include the following conditions: Water below Start/Low Level: Pump ON. Water between Start and High Level: Pump remains ON while filling. Water reaches High Level: Pump OFF. After the pump turns OFF, continuously monitor the water level. When the water level falls below the required start level again, turn the pump ON. Use standard flowchart symbols: Oval: Start/End Diamond: Decision Rectangle: Pump/relay operation Arrows: Direction of operation Make the final flowchart simple, professional, easy to understand, and suitable for an electrical engineering/college project report.

a flowchart for an automatic pump control with water level sensors and relay with 230v ac supply

design a flowchart of an automatic pump control with water level sensor with a relay in it

design a flowchart of an automatic pump control with water level sensor