算法艺术创作
algorithmic-art
通过代码和可调参数创作生成艺术与交互式视觉效果。
design-electromagnetic-device【设计与创意】Design practical electromagnetic devices including electromagnets, DC and brushless motors, generators, and transformers by bridging theory to application. Use when sizing a solenoid or toroidal electromagnet for a target field or force, selecting motor topology and computing torque and efficiency, designing a transformer for a given voltage ratio an…
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立效需→擇式→算參→析耗→驗度熱飽之限。
擇式前盡定設計標:
首效量:一最要之需:
次需:效標(%)、環之上溫升(K)、占比(連續、斷續、脈衝)、體(徑、長、重)。
源限:可得之壓、流、頻(DC 或 AC 定 Hz)、波形(正弦、PWM、梯形)。
境條:環溫域、冷法(自對流、強風、液)、海拔(影風冷)、震擊求。
## Design Requirements
- **Device type**: [electromagnet / motor / generator / transformer]
- **Primary specification**: [value with units]
- **Efficiency target**: [%]
- **Supply**: [voltage, current, frequency]
- **Thermal limit**: [max temperature rise in K]
- **Size constraint**: [dimensions or weight]
- **Duty cycle**: [continuous / intermittent (on-time/off-time) / pulsed]
得:諸需皆有量值與單位,無含糊。
敗:需相衝(如小體大矩高效)→明指權衡請設計者排序。電磁器遵基本縮放律:力隨體、耗隨面、熱限囿功密。
選合需之器構:
磁鐵諸式:
馬達諸式:
發電諸式:馬達逆用。BLDC 馬達→BLDC 發電(反電動勢為出)。感應馬達超同步速→感應發電。小規模(風、水)偏永磁發電。
變壓器諸式:
## Topology Selection
- **Topology chosen**: [specific configuration]
- **Justification**: [why it matches the requirements]
- **Key advantages**: [for this application]
- **Key limitations**: [and mitigation strategy]
- **Alternatives considered**: [and why rejected]
得:繫步一之需而證之擇,含承認限。
敗:無標式合諸需→考混式(如 Halbach 列,少材高場)或鬆次限。書權衡。
由電磁原理算體尺及電參:
磁鐵參:
馬達參:
變壓器參:
磁路析:含芯與隙之器:
## Design Parameters
- **Turns**: N = [value] (primary), N_2 = [value] (if applicable)
- **Wire gauge**: AWG [number] (diameter [mm], area [mm^2])
- **Core dimensions**: A_core = [mm^2], l_core = [mm], l_gap = [mm]
- **Core material**: [type], B_max = [T], mu_r = [value]
- **Winding resistance**: R = [Ohms]
- **Operating current**: I = [A], current density J = [A/mm^2]
- **Key performance**: [B-field / torque / voltage ratio = calculated value]
得:諸體尺及電參有量值,由電磁式推,每步查單位。
敗:所需匝不容於捲空→增芯(大窗)、細線(高密增熱)、減效標。芯超 B_max→增芯截或加匝。
量諸耗機並算總效:
銅耗(I^2 R):
芯耗(磁滯+渦流):
體構渦流耗:
機械耗(馬達、發電):
算效:
## Loss Analysis
| Loss Mechanism | Formula | Value (W) | Fraction of Total |
|---------------|---------|-----------|-------------------|
| Copper (I^2R) | [expression] | [W] | [%] |
| Core hysteresis | [expression] | [W] | [%] |
| Core eddy current | [expression] | [W] | [%] |
| Mechanical (if applicable) | [expression] | [W] | [%] |
| **Total losses** | | [W] | 100% |
- **Efficiency**: eta = [%]
- **Temperature rise estimate**: Delta_T = P_total / (h * A_surface) = [K]
得:諸耗機皆量,總效已算,溫升估以驗熱可行。
敗:效低標→識主耗:銅主於小器(增線或減匝),芯主於高頻(換低耗芯材或減 B_max),機主於高速(改軸承)。溫升超限→增冷(風、散熱)或減功密。
驗計合諸需且體可成:
效驗:
飽和查:
熱查:
尺查:
裕及敏:
## Design Validation
| Requirement | Target | Achieved | Margin |
|------------|--------|----------|--------|
| [Primary metric] | [value] | [value] | [%] |
| Efficiency | [%] | [%] | [%] |
| Temperature rise | < [K] | [K] | [K margin] |
| Envelope | [dimensions] | [dimensions] | [fits / exceeds] |
## Sensitivity Analysis
| Parameter | Nominal | +10% Effect on Primary Metric | Most Sensitive? |
|-----------|---------|-------------------------------|----------------|
| Current | [A] | [+/- %] | [Yes/No] |
| Turns | [N] | [+/- %] | [Yes/No] |
| Air gap | [mm] | [+/- %] | [Yes/No] |
| mu_r | [value] | [+/- %] | [Yes/No] |
得:諸需有書裕而符,熱可行已證,最敏參已識。
敗:需不符→調式(二)、參(三)、減耗策(四)迭代。熱不可行→減占比、增體(多面冷)、升絕緣級、加主動冷。書每迭。
analyze-magnetic-fieldsolve-electromagnetic-inductionformulate-maxwell-equationssimulate-cpu-architectureanalyze-tensegrity-system