rbRBoticsDepth

RBoticsDepth

@rboticsdepth

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RBoticsDepth è un creator di TikTok con 2.3K follower e 138.2K like. I suoi video fanno in media 1.5K visualizzazioni, con un tasso di engagement del 42.2%. Hashtag più usati: #engineering, #robotics e #rboticsdepth.

2.3K
Follower
1
Seguiti
138.2K
Like
1.5K
Visual. medie
Engagement: 42.2% Regno Unito 🗣️ inglese
2.3K
Follower
138.2K
Like totali
1.5K
Visual. medie
141
Video
1
Seguiti
0
Preferiti
42.2%
Engagement

Crescita e previsioni

Ultimo aggiornamentoPrevisione 7 giorniPrevisione 30 giorni
Follower2.3K🔒 Pro🔒 Pro
Like totali138.2K🔒 Pro🔒 Pro
Video141🔒 Pro🔒 Pro
Visual. medie1.5K🔒 Pro🔒 Pro

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Ultimo video: 2026-10-03

Before the robot can lift a vehicle, it must perfectly match its size. The “Stan” robot features an adjustable, low-profile chassis that sits just 5 millimetres off the ground, allowing it to slide easily under low-riding sports cars. Once underneath, the robot uses smart sensors to detect the front and rear wheels, dynamically extending its own length like a telescope to perfectly align with the vehicle’s unique wheelbase. Once in position, the robot deploys its patented pneumatic “pliers” system, consisting of heavy-duty metal rollers. Instead of lifting from the car’s fragile frame or touching the expensive metal rims, these rollers extend outwards and squeeze tightly against the front and back of the rubber tyres. Because rubber creates high natural friction, the robot achieves an incredibly secure grip using only the tyres, completely avoiding any metal-on-metal scratching. With the tyres securely clamped, the robot’s powerful electromechanical system lifts the car slightly off the ground. By lifting the vehicle strictly by its wheels—which are already engineered to support the entire weight of the car on the road—the robot ensures that no stress is placed on the vehicle’s bodywork, bumper, or suspension. This allows the robot to safely transport vehicles weighing up to 2.6 tonnes into tight parking spaces without a single scratch. #robotics #engineering #futuretech #automation #rboticsdepth
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Before the robot can lift a vehicle, it must perfectly match its size. The “Stan” robot features an adjustable, low-profile chassis that sits just 5 millimetres off the ground, allowing it to slide easily under low-riding sports cars. Once underneath, the robot uses smart sensors to detect the front and rear wheels, dynamically extending its own length like a telescope to perfectly align with the vehicle’s unique wheelbase. Once in position, the robot deploys its patented pneumatic “pliers” system, consisting of heavy-duty metal rollers. Instead of lifting from the car’s fragile frame or touching the expensive metal rims, these rollers extend outwards and squeeze tightly against the front and back of the rubber tyres. Because rubber creates high natural friction, the robot achieves an incredibly secure grip using only the tyres, completely avoiding any metal-on-metal scratching. With the tyres securely clamped, the robot’s powerful electromechanical system lifts the car slightly off the ground. By lifting the vehicle strictly by its wheels—which are already engineered to support the entire weight of the car on the road—the robot ensures that no stress is placed on the vehicle’s bodywork, bumper, or suspension. This allows the robot to safely transport vehicles weighing up to 2.6 tonnes into tight parking spaces without a single scratch. #robotics #engineering #futuretech #automation #rboticsdepth

The Cropr Weedr uses advanced artificial intelligence to protect crops by acting like a highly intelligent automated spotter. As it travels down farm rows, built-in digital cameras scan the ground at high speeds while an onboard computer analyzes the images pixel by pixel. The AI instantly distinguishes between the cash crop and unwanted weeds, even when they look incredibly similar or grow tightly packed together. This processing happens in milliseconds, allowing the robot to make up to 28 split-second decisions every second without stopping. Once a weed is identified, the robot fires a localized beam from a high-power blue laser directly at the weed’s growing center. This burst of light energy quickly heats and destroys the plant’s vital structures, effectively neutralizing the weed in a fraction of a second while leaving the adjacent crops completely untouched. Because it uses light instead of chemical sprays, it eliminates toxic runoff into the soil and prevents weeds from developing chemical resistance. Furthermore, by zapping weeds from above rather than digging them up, it leaves the surrounding soil completely undisturbed, preserving beneficial microorganisms and protecting delicate crop roots. #robotics #engineering #futuretech #automation #rboticsdepth
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The Cropr Weedr uses advanced artificial intelligence to protect crops by acting like a highly intelligent automated spotter. As it travels down farm rows, built-in digital cameras scan the ground at high speeds while an onboard computer analyzes the images pixel by pixel. The AI instantly distinguishes between the cash crop and unwanted weeds, even when they look incredibly similar or grow tightly packed together. This processing happens in milliseconds, allowing the robot to make up to 28 split-second decisions every second without stopping. Once a weed is identified, the robot fires a localized beam from a high-power blue laser directly at the weed’s growing center. This burst of light energy quickly heats and destroys the plant’s vital structures, effectively neutralizing the weed in a fraction of a second while leaving the adjacent crops completely untouched. Because it uses light instead of chemical sprays, it eliminates toxic runoff into the soil and prevents weeds from developing chemical resistance. Furthermore, by zapping weeds from above rather than digging them up, it leaves the surrounding soil completely undisturbed, preserving beneficial microorganisms and protecting delicate crop roots. #robotics #engineering #futuretech #automation #rboticsdepth

The “Magic Field” replaces mobile players with a grid of over 300 stationary linear actuators. Think of each green actuator as an intelligent piston that can only move in a straight line—extending outward and retracting backward. By arranging hundreds of these pistons tightly together in a grid, they create a reactive floor. When a football rolls over a specific section, a centralized computer instantly calculates the ball’s position and triggers the exact actuators directly underneath and around it. By rapidly popping up in a perfectly timed sequence, the actuators act like a coordinated wave of mechanical fingers, pushing the ball from one piston to the next to guide it smoothly across the pitch. The true magic lies in how the grid transitions from passing to scoring. While the main floor shifts the ball into position, a specialized SCARA-like robotic kicking mechanism handles the striking. This setup combines a rotary motor to swing the mechanical leg horizontally with two dedicated high-accuracy linear actuators to drive the foot forward with sudden, explosive force. By blending the fluid, rolling transitions of the floor grid with the high-speed snap of the kicking arm, the entire system demonstrates how “fixed automation”—where the machinery stays bolted in place—can completely replicate the dynamic, chaotic movement of a live sports game without needing a single mobile robot on the field. #robotics #engineering #SCARA #automation #rboticsdepth
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The “Magic Field” replaces mobile players with a grid of over 300 stationary linear actuators. Think of each green actuator as an intelligent piston that can only move in a straight line—extending outward and retracting backward. By arranging hundreds of these pistons tightly together in a grid, they create a reactive floor. When a football rolls over a specific section, a centralized computer instantly calculates the ball’s position and triggers the exact actuators directly underneath and around it. By rapidly popping up in a perfectly timed sequence, the actuators act like a coordinated wave of mechanical fingers, pushing the ball from one piston to the next to guide it smoothly across the pitch. The true magic lies in how the grid transitions from passing to scoring. While the main floor shifts the ball into position, a specialized SCARA-like robotic kicking mechanism handles the striking. This setup combines a rotary motor to swing the mechanical leg horizontally with two dedicated high-accuracy linear actuators to drive the foot forward with sudden, explosive force. By blending the fluid, rolling transitions of the floor grid with the high-speed snap of the kicking arm, the entire system demonstrates how “fixed automation”—where the machinery stays bolted in place—can completely replicate the dynamic, chaotic movement of a live sports game without needing a single mobile robot on the field. #robotics #engineering #SCARA #automation #rboticsdepth

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Al 2026-10-25, RBoticsDepth (@rboticsdepth) ha 2.3K follower su TikTok.

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