SCENE 1 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: none. Establish the supplied photograph’s recognizable lattice-tower silhouette, ochre hills, pale hazy sky, and foreground stranded conductors. Explain the permanent electrical jumper at a strain anchorage, without identifying an ambiguous cable in the photograph as a completed jumper. A jumper electrically connects the same phase’s conductor ends across the anchorage [5].

0.0–2.0 seconds:
Open with extreme foreground perspective along the two visible metallic conductors toward the reference tower. Rack focus from spiral strands to the tower: the striking question is why some wires appear slack while others are tensioned.

2.0–5.0 seconds:
Follow one visible conductor toward its attachment region. Through a conductor-aligned match dissolve, enter a clearly illustrative anatomical reconstruction of one subconductor’s anchorage branch. Preserve the reference-inspired tower family and terrain, but do not present reconstructed details as specifications established by the photograph.

5.0–8.0 seconds:
Reveal two opposing strain terminations and a flexible jumper connecting their conductor-side electrical terminals. Place a cyan “Bretelle de raccordement” callout beside the loop, its thin leader ending precisely on the jumper. Place white “Principe illustratif” beside the reconstructed detail.

8.0–10.0 seconds:
Orbit gently into a side elevation: incoming conductor on screen-left, outgoing conductor on screen-right, jumper hanging below the terminations and outside grounded steel.

Physical realism:
Show one subconductor branch for explanation, not an inferred bundle count. The jumper joins conductor-side terminals, never tower-side fittings or insulating discs. Its shape follows gravity and supported cable mechanics [5]. Do not infer the photograph’s voltage, project, conductor material, operational state, or unfinished work status. Source markers are production metadata: never render or speak them.

Cinematic direction:
Photorealistic premium technical documentary; vertical 9:16; exactly 10 seconds; natural cinematic motion. Diffuse late-morning light, restrained contrast, detailed galvanized steel and metallic strands. Cyan identifies the jumper; white identifies illustrative content. No physical cable glow.

On-screen technical labels:
“Bretelle de raccordement” — cyan, leader to the flexible jumper.
“Principe illustratif” — white, leader to the anatomical reconstruction.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“شوف هاد السلك المرخي... ماشي الشكل بوحدو اللي كيحدد البريتيل. فخط ديال ربعمية كيلوفولط، كنفسروها بوصلة كتربط نفس الفاز من جهتي الأنكراج.”
Audio: soft dry wind below narration; no electrical hum attributed to the reference photograph; no music.

End frame continuity:
Hold the illustrative side elevation, incoming conductor left, outgoing conductor right, flexible jumper below, grounded crossarm behind. This exact frame opens Scene 2.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 2 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the identical illustrative side elevation, with the same terminations, jumper, crossarm, terrain, lighting, and left-to-right explanatory direction.

0.0–2.0 seconds:
The camera advances slightly toward the anchorage. Introduce restrained amber force arrows along the incoming and outgoing span conductors, pointing outward toward their respective spans.

2.0–5.0 seconds:
Trace the mechanical load path through each dead-end fitting, strain-insulator assembly, and grounded crossarm attachment. Keep the slack jumper outside the span-tension load path.

5.0–8.0 seconds:
Fade the force arrows slightly. A thin cyan animated tracing overlay follows the electrical connection from the incoming conductor, through its terminal, around the jumper, and into the outgoing conductor. This is a connectivity diagram, not visible electricity or a representation of instantaneous AC current direction.

8.0–10.0 seconds:
Follow the cyan tracing into the left-hand jumper terminal and stop on its bolted electrical interface.

Physical realism:
The dead-end assemblies sustain the span tension; the jumper maintains electrical continuity and carries its own mechanical loads, not the full longitudinal span tension [5]. Insulators separate conductor-side energized hardware from grounded steel. No current tracing crosses an insulating body or enters tower steel. Source markers are production metadata: never render or speak them.

Cinematic direction:
Slow controlled side tracking, medium telephoto compression, subtle rack focus between load-bearing hardware and jumper. Maintain the pale sky and ochre background. Educational overlays remain thin, transparent, and distinguishable from physical objects.

On-screen technical labels:
“Effort mécanique” — amber, leaders to dead-end load paths.
“Continuité électrique” — cyan, leader to the jumper conductor.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“فالأنكراج، شدّ الكابل كيتحمّل فالتثبيت وسلاسل الإيزولاتور. أما بريتيل دو راكوردمان، كتكمّل الربط الكهربائي بين الجهتين؛ ماشي هي اللي كتشدّ الكابل ديال المسافة بين البوطوات.”
Audio: low dry wind, unobtrusive documentary ambience, no synthetic electrical rushing sound.

End frame continuity:
A close side view of the left jumper terminal fills the lower-right frame; its dead-end body and strain-insulator assembly extend toward the upper-left. This exact composition opens Scene 3.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 3 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the exact left-hand jumper-terminal close-up. Retain the same illustrative compression-dead-end assembly and surrounding anchorage geometry.

0.0–2.0 seconds:
Macro tracking reveals the stranded jumper entering its compression terminal and the terminal tongue meeting the dead-end’s electrical connection pad.

2.0–5.0 seconds:
Introduce a restrained sectional visualization through the terminal sleeve, revealing the conductor-to-terminal contact region. Do not detach actual hardware or reveal an invented conductor core. Continue along the bolted contact interface to the dead-end body.

5.0–8.0 seconds:
Show three short white engineering callouts, introduced sequentially: “Conducteur de bretelle,” “Terminal de bretelle,” and “Plage de raccordement.” Each leader lands precisely on its component.

8.0–10.0 seconds:
Pull back along the jumper until both terminations and its entire suspended curve fit within the portrait frame. Let the component callouts fade.

Physical realism:
This is an illustrative compression-terminal arrangement, not the only available jumper connection. Jumper terminals and dead-end interfaces must match the specified assembly [5]. A terminal’s conductor compatibility and preparation requirements are manufacturer-specific, as illustrated by the Fargo compression-assembly instructions [3]. Do not portray every conductor as steel-cored. Source markers are production metadata: never render or speak them.

Cinematic direction:
Photorealistic macro metal textures, believable machined surfaces, supported fittings, controlled shallow depth of field. The sectional view is a technical visualization; intact physical surfaces return before the pullback.

On-screen technical labels:
“Conducteur de bretelle” — white, leader to the jumper strands.
“Terminal de bretelle” — white, leader to its compression terminal.
“Plage de raccordement” — white, leader to the mating electrical pad.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“نشرّحو هاد المثال: كونداكتور مرن، طرف ديال الربط، وبلاصة التلامس مع الأنكراج. التيار كيدوز من هاد التلامسات؛ والإيزولاتور كيبقى فاصل بين الجزء الكهربائي والحديد ديال البوطو.”
Audio: soft wind beneath narration; no invented mechanical clicks from stationary installed equipment.

End frame continuity:
Hold the complete jumper side elevation with both terminal interfaces visible and open sky around its curve. This exact frame opens Scene 4.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 4 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the identical full jumper elevation, with fixed conductor-side endpoints and grounded steel behind it.

0.0–2.0 seconds:
A delicate engineering outline follows the actual jumper curve. Reveal that its apparent slack is deliberate geometry, not an arbitrary excess of cable.

2.0–5.0 seconds:
Keep the physical jumper unchanged. In an explicitly educational overlay, compare its designed profile with faint alternative profiles: one too taut, another excessively deep. Do not energize or physically install either rejected configuration.

5.0–8.0 seconds:
Project amber clearance-measurement lines between the jumper’s movement envelope and nearby grounded steel. Include no numerical distances. White “Géométrie selon étude” points to the nominal curve; amber “Distance électrique” points to the relevant air gap.

8.0–10.0 seconds:
The overlay contracts into a thin sectional line beside the crossarm. Follow the grounded tower member downward toward an adjacent ground-level training area; finish on the tower’s lower steel and footing.

Physical realism:
Jumper geometry must follow the approved arrangement and electrical-clearance assessment rather than a universal cut length [5]. Wind restraint and jumper clearance are design considerations, not identical requirements for every tower, as illustrated by utility transmission-line design criteria [6]. Rejected profiles remain diagrammatic only. Source markers are production metadata: never render or speak them.

Cinematic direction:
Continuous crane-like virtual descent motivated by the grounded steel member; no abrupt cuts, no impossible tower deformation. Same dry terrain, diffuse daylight, and graphic palette.

On-screen technical labels:
“Géométrie selon étude” — white, leader to the nominal jumper profile.
“Distance électrique” — amber, leader to the air gap between the movement envelope and grounded steel.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“الطول ما كيتختارش بالعين. خاص شكل محسوب: ما تكونش مشدودة بزاف، وما تهبطش بزاف. والبعد على الحديد وعلى الفازات الأخرى كيتراجع حسب الدراسة والظروف.”
Audio: gentle wind with subtle gravel ambience emerging during the descent; no dominant music.

End frame continuity:
The grounded lower tower member occupies screen-left, its footing below; the edge of a supervised ground-level training area enters screen-right. This exact frame opens Scene 5.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 5 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the same lower tower member and footing, with the training area entering screen-right. Move away from the tower toward a supported, disconnected demonstration assembly.

0.0–2.0 seconds:
Reveal a professional electrical training bench outside any energized equipment zone. One qualified demonstrator wears appropriate site PPE and remains at ground level; no climbing, live-line access, or operational switching is shown.

2.0–5.0 seconds:
Beside the bench, show a small educational diagram of an overhead worksite already under formal safety control. It depicts verified de-energization and engineered protective grounding without showing grounding application steps, switch locations, or access routes.

5.0–8.0 seconds:
Introduce amber “Travail autorisé” to the supervised demonstration area and white “Protection équipotentielle” to the diagram’s protective arrangement. Keep all actual training samples visibly disconnected.

8.0–10.0 seconds:
The camera settles over the bench on a supported stranded-conductor sample, compatible terminals, and an outline drawing without numerical specifications.

Physical realism:
Work on transmission equipment treated as de-energized requires established de-energization and appropriate protective grounding; simply opening a circuit is not sufficient [9]. Protective arrangements must address hazardous potential differences [8]. The bench is an isolated teaching setup, not a substitute for a utility work authorization or safety procedure. Source markers are production metadata: never render or speak them.

Cinematic direction:
Ground-level dolly and controlled overhead tilt; realistic gloves, galvanized supports, dusty gravel, and clean sample surfaces. Safety diagrams use restrained engineering linework, not magical shielding.

On-screen technical labels:
“Travail autorisé” — amber, leader to the supervised demonstration area.
“Protection équipotentielle” — white, leader to the educational protective-grounding diagram.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“هاد الخدمة غير للمهنيين المرخّصين، وخط مأمّن رسمياً. القطع بوحدو ما كافيش: خاص التحقق من غياب الجهد، والتأريض الوقائي، والحماية من رجوع الجهد ومن تأثير الخطوط المجاورة.”
Audio: soft gravel footsteps and dry wind below narration; demonstrator remains silent.

End frame continuity:
Overhead close-up of the disconnected conductor sample resting in padded supports, with compatible terminals at screen-right and the geometry outline above. This exact frame opens Scene 6.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 6 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the identical disconnected conductor sample, padded supports, compatible terminals, and non-dimensional geometry outline on the ground-level bench.

0.0–2.0 seconds:
Macro inspection travels along the sample’s intact spiral strands. A gloved hand gently steadies it without untwisting, sharply bending, or damaging the conductor.

2.0–5.0 seconds:
Show the qualified demonstrator comparing the sample and its terminal to the engineering outline. Use an overview of prepared contact surfaces rather than a detailed fabrication tutorial. No cutting dimensions, stripping lengths, or conductor-specific recipes appear.

5.0–8.0 seconds:
White “Compatibilité conducteur–terminal” connects the sample to its matching terminal. White “Brins intacts” points to undamaged outer strands. Briefly reveal a clean, orderly contact region; do not imply that solvent wiping alone constitutes complete preparation.

8.0–10.0 seconds:
Track along the supported conductor end toward the terminal sleeve, ending with both aligned on the bench before connection.

Physical realism:
Conductor preparation, compatible fittings, and required contact treatment depend on the selected manufacturer’s assembly instructions; the Fargo instructions explicitly require clean, straight, correctly laid conductor ends [3]. Show preparation principles only, without transferring a product-specific method to the photographed line. No assumed steel core, alloy, section, or universal bend radius. Source markers are production metadata: never render or speak them.

Cinematic direction:
Photorealistic macro inspection, soft reflected daylight, subtle glove texture and metallic strand detail. No sparks, heat, or energized effects. Every sample remains supported by the bench.

On-screen technical labels:
“Compatibilité conducteur–terminal” — white, leaders to sample and matching terminal.
“Brins intacts” — white, leader to the undamaged outer strands.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“فالتحضير، كيتراجع تطابق الكونداكتور مع الأطراف والمخطط. الخيوط خاصها تبقى سليمة، والتلامسات كتوجد حسب تعليمات الصانع؛ ماشي أي كابل، ولا أي كونيكطور، يركب بلا دراسة.”
Audio: faint glove movement and supported metal handling below narration; steady outdoor wind; no music.

End frame continuity:
Close overhead view of the supported conductor end aligned with its compatible compression-terminal sleeve. This exact frame opens Scene 7.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 7 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the same supported conductor end and compression-terminal sleeve, aligned on the disconnected training bench.

0.0–2.0 seconds:
Move into an anatomical sectional view of a completed terminal sample. Reveal the conductor seated inside the metal sleeve, with continuous, undamaged strands.

2.0–5.0 seconds:
Use a brief non-operational illustration of matched compression tooling around a separate supported sample. Reveal the completed compressed contact afterward. Do not show tool settings, die codes, pressing sequence, insertion dimensions, or a reproducible installation recipe.

5.0–8.0 seconds:
White “Sertissage selon fabricant” points to the compressed sleeve. White “Interface boulonnée” points to the terminal tongue and a supported matching electrical pad. Show their correctly seated, completed interface without prescribing a universal tightening value.

8.0–10.0 seconds:
Pull back to reveal the completed demonstration jumper resting in broad supports, with both end terminals visible and its curved shape maintained.

Physical realism:
Compression terminals are one assembly option, and their preparation and tooling are product-specific [3]. The jumper’s installed terminal arrangement must match the specified dead-end system and approved drawings [5]. Show metal compression, not welding, melting, or improvised gripping. All demonstrations are disconnected and supported. Source markers are production metadata: never render or speak them.

Cinematic direction:
Controlled macro-to-medium pullback, realistic metallic deformation in the sectional illustration, no dramatic machinery effects. Match the same warm-neutral bench lighting and white/cyan engineering palette.

On-screen technical labels:
“Sertissage selon fabricant” — white, leader to the compression sleeve.
“Interface boulonnée” — white, leader to the mating electrical pads.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“فهاد المثال، الطرف كيتثبت بالسيرتيساج المناسب ليه. ومن بعد، التلامس المبرغي كيتجمع حسب الصانع. لا الضغط، لا ترتيب الخدمة، لا شدّ البراغي عندهم قيمة وحدة للجميع.”
Audio: subdued bench handling and a brief muted mechanical sound beneath narration; no dominant music.

End frame continuity:
The completed disconnected jumper lies in broad supports, its left terminal nearest the camera and its second terminal deeper in frame. This exact composition opens Scene 8.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 8 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the supported completed jumper on the bench, with its left terminal nearest the camera. Follow that terminal into a fitting-aligned transition to the same illustrative tower anchorage used in Scenes 1–4.

0.0–2.0 seconds:
A pr

SCENE 1 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: none. Establish the supplied photograph’s recognizable lattice-tower silhouette, ochre hills, pale hazy sky, and foreground stranded conductors. Explain the permanent electrical jumper at a strain anchorage, without identifying an ambiguous cable in the photograph as a completed jumper. A jumper electrically connects the same phase’s conductor ends across the anchorage [5].

0.0–2.0 seconds:
Open with extreme foreground perspective along the two visible metallic conductors toward the reference tower. Rack focus from spiral strands to the tower: the striking question is why some wires appear slack while others are tensioned.

2.0–5.0 seconds:
Follow one visible conductor toward its attachment region. Through a conductor-aligned match dissolve, enter a clearly illustrative anatomical reconstruction of one subconductor’s anchorage branch. Preserve the reference-inspired tower family and terrain, but do not present reconstructed details as specifications established by the photograph.

5.0–8.0 seconds:
Reveal two opposing strain terminations and a flexible jumper connecting their conductor-side electrical terminals. Place a cyan “Bretelle de raccordement” callout beside the loop, its thin leader ending precisely on the jumper. Place white “Principe illustratif” beside the reconstructed detail.

8.0–10.0 seconds:
Orbit gently into a side elevation: incoming conductor on screen-left, outgoing conductor on screen-right, jumper hanging below the terminations and outside grounded steel.

Physical realism:
Show one subconductor branch for explanation, not an inferred bundle count. The jumper joins conductor-side terminals, never tower-side fittings or insulating discs. Its shape follows gravity and supported cable mechanics [5]. Do not infer the photograph’s voltage, project, conductor material, operational state, or unfinished work status. Source markers are production metadata: never render or speak them.

Cinematic direction:
Photorealistic premium technical documentary; vertical 9:16; exactly 10 seconds; natural cinematic motion. Diffuse late-morning light, restrained contrast, detailed galvanized steel and metallic strands. Cyan identifies the jumper; white identifies illustrative content. No physical cable glow.

On-screen technical labels:
“Bretelle de raccordement” — cyan, leader to the flexible jumper.
“Principe illustratif” — white, leader to the anatomical reconstruction.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“شوف هاد السلك المرخي... ماشي الشكل بوحدو اللي كيحدد البريتيل. فخط ديال ربعمية كيلوفولط، كنفسروها بوصلة كتربط نفس الفاز من جهتي الأنكراج.”
Audio: soft dry wind below narration; no electrical hum attributed to the reference photograph; no music.

End frame continuity:
Hold the illustrative side elevation, incoming conductor left, outgoing conductor right, flexible jumper below, grounded crossarm behind. This exact frame opens Scene 2.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 2 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the identical illustrative side elevation, with the same terminations, jumper, crossarm, terrain, lighting, and left-to-right explanatory direction.

0.0–2.0 seconds:
The camera advances slightly toward the anchorage. Introduce restrained amber force arrows along the incoming and outgoing span conductors, pointing outward toward their respective spans.

2.0–5.0 seconds:
Trace the mechanical load path through each dead-end fitting, strain-insulator assembly, and grounded crossarm attachment. Keep the slack jumper outside the span-tension load path.

5.0–8.0 seconds:
Fade the force arrows slightly. A thin cyan animated tracing overlay follows the electrical connection from the incoming conductor, through its terminal, around the jumper, and into the outgoing conductor. This is a connectivity diagram, not visible electricity or a representation of instantaneous AC current direction.

8.0–10.0 seconds:
Follow the cyan tracing into the left-hand jumper terminal and stop on its bolted electrical interface.

Physical realism:
The dead-end assemblies sustain the span tension; the jumper maintains electrical continuity and carries its own mechanical loads, not the full longitudinal span tension [5]. Insulators separate conductor-side energized hardware from grounded steel. No current tracing crosses an insulating body or enters tower steel. Source markers are production metadata: never render or speak them.

Cinematic direction:
Slow controlled side tracking, medium telephoto compression, subtle rack focus between load-bearing hardware and jumper. Maintain the pale sky and ochre background. Educational overlays remain thin, transparent, and distinguishable from physical objects.

On-screen technical labels:
“Effort mécanique” — amber, leaders to dead-end load paths.
“Continuité électrique” — cyan, leader to the jumper conductor.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“فالأنكراج، شدّ الكابل كيتحمّل فالتثبيت وسلاسل الإيزولاتور. أما بريتيل دو راكوردمان، كتكمّل الربط الكهربائي بين الجهتين؛ ماشي هي اللي كتشدّ الكابل ديال المسافة بين البوطوات.”
Audio: low dry wind, unobtrusive documentary ambience, no synthetic electrical rushing sound.

End frame continuity:
A close side view of the left jumper terminal fills the lower-right frame; its dead-end body and strain-insulator assembly extend toward the upper-left. This exact composition opens Scene 3.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 3 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the exact left-hand jumper-terminal close-up. Retain the same illustrative compression-dead-end assembly and surrounding anchorage geometry.

0.0–2.0 seconds:
Macro tracking reveals the stranded jumper entering its compression terminal and the terminal tongue meeting the dead-end’s electrical connection pad.

2.0–5.0 seconds:
Introduce a restrained sectional visualization through the terminal sleeve, revealing the conductor-to-terminal contact region. Do not detach actual hardware or reveal an invented conductor core. Continue along the bolted contact interface to the dead-end body.

5.0–8.0 seconds:
Show three short white engineering callouts, introduced sequentially: “Conducteur de bretelle,” “Terminal de bretelle,” and “Plage de raccordement.” Each leader lands precisely on its component.

8.0–10.0 seconds:
Pull back along the jumper until both terminations and its entire suspended curve fit within the portrait frame. Let the component callouts fade.

Physical realism:
This is an illustrative compression-terminal arrangement, not the only available jumper connection. Jumper terminals and dead-end interfaces must match the specified assembly [5]. A terminal’s conductor compatibility and preparation requirements are manufacturer-specific, as illustrated by the Fargo compression-assembly instructions [3]. Do not portray every conductor as steel-cored. Source markers are production metadata: never render or speak them.

Cinematic direction:
Photorealistic macro metal textures, believable machined surfaces, supported fittings, controlled shallow depth of field. The sectional view is a technical visualization; intact physical surfaces return before the pullback.

On-screen technical labels:
“Conducteur de bretelle” — white, leader to the jumper strands.
“Terminal de bretelle” — white, leader to its compression terminal.
“Plage de raccordement” — white, leader to the mating electrical pad.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“نشرّحو هاد المثال: كونداكتور مرن، طرف ديال الربط، وبلاصة التلامس مع الأنكراج. التيار كيدوز من هاد التلامسات؛ والإيزولاتور كيبقى فاصل بين الجزء الكهربائي والحديد ديال البوطو.”
Audio: soft wind beneath narration; no invented mechanical clicks from stationary installed equipment.

End frame continuity:
Hold the complete jumper side elevation with both terminal interfaces visible and open sky around its curve. This exact frame opens Scene 4.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 4 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the identical full jumper elevation, with fixed conductor-side endpoints and grounded steel behind it.

0.0–2.0 seconds:
A delicate engineering outline follows the actual jumper curve. Reveal that its apparent slack is deliberate geometry, not an arbitrary excess of cable.

2.0–5.0 seconds:
Keep the physical jumper unchanged. In an explicitly educational overlay, compare its designed profile with faint alternative profiles: one too taut, another excessively deep. Do not energize or physically install either rejected configuration.

5.0–8.0 seconds:
Project amber clearance-measurement lines between the jumper’s movement envelope and nearby grounded steel. Include no numerical distances. White “Géométrie selon étude” points to the nominal curve; amber “Distance électrique” points to the relevant air gap.

8.0–10.0 seconds:
The overlay contracts into a thin sectional line beside the crossarm. Follow the grounded tower member downward toward an adjacent ground-level training area; finish on the tower’s lower steel and footing.

Physical realism:
Jumper geometry must follow the approved arrangement and electrical-clearance assessment rather than a universal cut length [5]. Wind restraint and jumper clearance are design considerations, not identical requirements for every tower, as illustrated by utility transmission-line design criteria [6]. Rejected profiles remain diagrammatic only. Source markers are production metadata: never render or speak them.

Cinematic direction:
Continuous crane-like virtual descent motivated by the grounded steel member; no abrupt cuts, no impossible tower deformation. Same dry terrain, diffuse daylight, and graphic palette.

On-screen technical labels:
“Géométrie selon étude” — white, leader to the nominal jumper profile.
“Distance électrique” — amber, leader to the air gap between the movement envelope and grounded steel.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“الطول ما كيتختارش بالعين. خاص شكل محسوب: ما تكونش مشدودة بزاف، وما تهبطش بزاف. والبعد على الحديد وعلى الفازات الأخرى كيتراجع حسب الدراسة والظروف.”
Audio: gentle wind with subtle gravel ambience emerging during the descent; no dominant music.

End frame continuity:
The grounded lower tower member occupies screen-left, its footing below; the edge of a supervised ground-level training area enters screen-right. This exact frame opens Scene 5.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 5 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the same lower tower member and footing, with the training area entering screen-right. Move away from the tower toward a supported, disconnected demonstration assembly.

0.0–2.0 seconds:
Reveal a professional electrical training bench outside any energized equipment zone. One qualified demonstrator wears appropriate site PPE and remains at ground level; no climbing, live-line access, or operational switching is shown.

2.0–5.0 seconds:
Beside the bench, show a small educational diagram of an overhead worksite already under formal safety control. It depicts verified de-energization and engineered protective grounding without showing grounding application steps, switch locations, or access routes.

5.0–8.0 seconds:
Introduce amber “Travail autorisé” to the supervised demonstration area and white “Protection équipotentielle” to the diagram’s protective arrangement. Keep all actual training samples visibly disconnected.

8.0–10.0 seconds:
The camera settles over the bench on a supported stranded-conductor sample, compatible terminals, and an outline drawing without numerical specifications.

Physical realism:
Work on transmission equipment treated as de-energized requires established de-energization and appropriate protective grounding; simply opening a circuit is not sufficient [9]. Protective arrangements must address hazardous potential differences [8]. The bench is an isolated teaching setup, not a substitute for a utility work authorization or safety procedure. Source markers are production metadata: never render or speak them.

Cinematic direction:
Ground-level dolly and controlled overhead tilt; realistic gloves, galvanized supports, dusty gravel, and clean sample surfaces. Safety diagrams use restrained engineering linework, not magical shielding.

On-screen technical labels:
“Travail autorisé” — amber, leader to the supervised demonstration area.
“Protection équipotentielle” — white, leader to the educational protective-grounding diagram.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“هاد الخدمة غير للمهنيين المرخّصين، وخط مأمّن رسمياً. القطع بوحدو ما كافيش: خاص التحقق من غياب الجهد، والتأريض الوقائي، والحماية من رجوع الجهد ومن تأثير الخطوط المجاورة.”
Audio: soft gravel footsteps and dry wind below narration; demonstrator remains silent.

End frame continuity:
Overhead close-up of the disconnected conductor sample resting in padded supports, with compatible terminals at screen-right and the geometry outline above. This exact frame opens Scene 6.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 6 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the identical disconnected conductor sample, padded supports, compatible terminals, and non-dimensional geometry outline on the ground-level bench.

0.0–2.0 seconds:
Macro inspection travels along the sample’s intact spiral strands. A gloved hand gently steadies it without untwisting, sharply bending, or damaging the conductor.

2.0–5.0 seconds:
Show the qualified demonstrator comparing the sample and its terminal to the engineering outline. Use an overview of prepared contact surfaces rather than a detailed fabrication tutorial. No cutting dimensions, stripping lengths, or conductor-specific recipes appear.

5.0–8.0 seconds:
White “Compatibilité conducteur–terminal” connects the sample to its matching terminal. White “Brins intacts” points to undamaged outer strands. Briefly reveal a clean, orderly contact region; do not imply that solvent wiping alone constitutes complete preparation.

8.0–10.0 seconds:
Track along the supported conductor end toward the terminal sleeve, ending with both aligned on the bench before connection.

Physical realism:
Conductor preparation, compatible fittings, and required contact treatment depend on the selected manufacturer’s assembly instructions; the Fargo instructions explicitly require clean, straight, correctly laid conductor ends [3]. Show preparation principles only, without transferring a product-specific method to the photographed line. No assumed steel core, alloy, section, or universal bend radius. Source markers are production metadata: never render or speak them.

Cinematic direction:
Photorealistic macro inspection, soft reflected daylight, subtle glove texture and metallic strand detail. No sparks, heat, or energized effects. Every sample remains supported by the bench.

On-screen technical labels:
“Compatibilité conducteur–terminal” — white, leaders to sample and matching terminal.
“Brins intacts” — white, leader to the undamaged outer strands.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“فالتحضير، كيتراجع تطابق الكونداكتور مع الأطراف والمخطط. الخيوط خاصها تبقى سليمة، والتلامسات كتوجد حسب تعليمات الصانع؛ ماشي أي كابل، ولا أي كونيكطور، يركب بلا دراسة.”
Audio: faint glove movement and supported metal handling below narration; steady outdoor wind; no music.

End frame continuity:
Close overhead view of the supported conductor end aligned with its compatible compression-terminal sleeve. This exact frame opens Scene 7.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 7 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the same supported conductor end and compression-terminal sleeve, aligned on the disconnected training bench.

0.0–2.0 seconds:
Move into an anatomical sectional view of a completed terminal sample. Reveal the conductor seated inside the metal sleeve, with continuous, undamaged strands.

2.0–5.0 seconds:
Use a brief non-operational illustration of matched compression tooling around a separate supported sample. Reveal the completed compressed contact afterward. Do not show tool settings, die codes, pressing sequence, insertion dimensions, or a reproducible installation recipe.

5.0–8.0 seconds:
White “Sertissage selon fabricant” points to the compressed sleeve. White “Interface boulonnée” points to the terminal tongue and a supported matching electrical pad. Show their correctly seated, completed interface without prescribing a universal tightening value.

8.0–10.0 seconds:
Pull back to reveal the completed demonstration jumper resting in broad supports, with both end terminals visible and its curved shape maintained.

Physical realism:
Compression terminals are one assembly option, and their preparation and tooling are product-specific [3]. The jumper’s installed terminal arrangement must match the specified dead-end system and approved drawings [5]. Show metal compression, not welding, melting, or improvised gripping. All demonstrations are disconnected and supported. Source markers are production metadata: never render or speak them.

Cinematic direction:
Controlled macro-to-medium pullback, realistic metallic deformation in the sectional illustration, no dramatic machinery effects. Match the same warm-neutral bench lighting and white/cyan engineering palette.

On-screen technical labels:
“Sertissage selon fabricant” — white, leader to the compression sleeve.
“Interface boulonnée” — white, leader to the mating electrical pads.

Voice and audio:
Narrator voice: the same Moroccan male electrical-engineer narrator in every scene; age 30–40; pure natural Moroccan Darija; warm low-mid register; calm, confident, technically precise, expressive; identical vocal identity, pacing, and microphone character across the entire video.
Voice-over in Moroccan Darija:
“فهاد المثال، الطرف كيتثبت بالسيرتيساج المناسب ليه. ومن بعد، التلامس المبرغي كيتجمع حسب الصانع. لا الضغط، لا ترتيب الخدمة، لا شدّ البراغي عندهم قيمة وحدة للجميع.”
Audio: subdued bench handling and a brief muted mechanical sound beneath narration; no dominant music.

End frame continuity:
The completed disconnected jumper lies in broad supports, its left terminal nearest the camera and its second terminal deeper in frame. This exact composition opens Scene 8.

NEGATIVE CONSTRAINTS:
No incorrect voltage infrastructure. No impossible conductor attachment. No floating cables. No warped lattice towers. No duplicated insulator strings. No unreadable labels. No captions unless requested. No random text. No extra narrator. No dialogue from people on screen. No unsafe climbing. No exposed energized contact. No fantasy sparks. No cartoon effects. No exaggerated corona. No logos. No watermarks.

SCENE 8 — 10 seconds — Vertical 9:16
Platform: Google Flow. Model: Gemini Omni 1.1 Flash. Native synchronized audio.

Visual continuity:
Start from previous scene: the supported completed jumper on the bench, with its left terminal nearest the camera. Follow that terminal into a fitting-aligned transition to the same illustrative tower anchorage used in Scenes 1–4.

0.0–2.0 seconds:
A pr