Characteristics and Advantages
(1) Intelligent control design: adjustable main parameter and secondary parameter automatically according to the weight of door leaves;
(2) Low noise: Special static sound track, integration of motor, worm-gear and retarder.
(3) Anti-clamping function: automatically reverse when meeting barriers;
(4) Unique electronic motor lock: the motor will lock up when the door is forced to open.(controlled by remote or switch)
(5) Tighten force: seal door when closed, power consumption approximately 10W under standby;
(6) Advanced brushless motor(36V,100W) can automatically adopt different heavy door leaves;
(7) Bi-doors inter-locking: one of the door leaves always remains closing;
(8)Safety sensor terminal: sensor stops working when door closed;
(9)Unique coating technology: never rusty;
(10)Easy and convenient to install;
(11)Working Process: when the door leaf closes to the right place, the door leaf will slightly shift to the door frame and the ground. The rubbers on the four sides of the door leaf will completely combine with door frame and ground, which ensures air tightness. When the door is open, the rubbers will separate from door frame and ground, which avoids contraction on the ground.
Technical Specification
Specification
Light Duty
Heavy Duty
Rang of the Door
Single-Leaf
Double-Leaf
Single-Leaf
Double-Leaf
Door leaf max weight
100kg
100kg x 2
200kg
200kg x 2
Mounting Method
Surface mounting or built-in mounting
Open Width
700-2000mm
650-2000mm
750-2000mm
650-2000mm
Power Supply
AC 220v ± 10%, 50-60 Hz
Opening Speed
300-500mm/s (adjustable)
Closing Speed
250-550mm/s (adjustable)
Creep speed
30-100mm/s (adjustable)
Hold-open time
0.5-20s (adjustable)
Airproof Force (Max.)
>70N
Manual Pushing Force
<100N
Electronic Lock Force
>800N
Power consumption
150W
Ambient temperature
-20+50 C
Technical Details:
(1) Rubber lining sealing technology combined with V groove on the guide rail enables the door completely sealed when the door closed;
(2)Special door body location technology. Semicircular surface beam on the ground matches with the V style groove at the bottom of door leaf, which stop the door from swing and make sure it moves stable and smooth;
(3) The door body decorated with matte stainless steel or spray surface, and on the middle and both sides with sealing stripes to ensure the hermetic effect.
(4)Feet sensor switch applied to avoid contagion;
Stainless Steel Sliding Door,Stainless Steel Bypass Sliding Door,Stainless Steel Interior Sliding Door,Stainless Steel Folding Sliding Door Shenzhen Hongfa Automatic Door Co., Ltd. , https://www.hfgaragedoor.com
France developed a photon capture instrument to achieve Einstein's wish
Beijing time on the 15th, according to foreign media reports, French physicists claim that they have designed a device that can capture photons, this photon capture device is only 2.7 cm (1.1 inches) large, can produce photo to disappear from photons. Monitoring throughout the process.
In 1927, Albert Einstein imagined such a box in which light could be captured, and individual light particles or photons could be released in theoretical experiments to measure the relationship between matter and energy. Photons can be thought of as the ultimate particle in the physical world. When the incandescent bulb is on, 1000 trillion photons are released every second. But once you see the photon it disappears, because the photon consumes the energy that sustains it when it comes into contact with the retina.
Jean Michelle Raymond of the French National Centre for Scientific Research is one of the team members who invented the box. He said: "Photons can be detected very easily. Open computer screens have every second. The photons are released. But you can only detect the photons once. Although we can now analyze the photons in real time while they still exist, this is still an afterthought."
The box consists of a recess, surrounded by the most reflective material. This super-conducting mirror allows the captured photons to remain in 1/7 of a second. This time does not seem to be too long, but in such a short period of time, the distance of free photons can reach 1/10 of the distance between the moon and the earth.
In the conventional research method, the number of photons is calculated by the light detector absorption and the energy lost after the photons collide with each other. But this collision can destroy photons, so you need to find a penetrating photon calculator. The French research team published their research report in the British journal Nature on Thursday, researchers said that photons can be successfully captured when helium atoms flow through the box.
Photons have an electron region that can slightly change the energy level of an atom, but in experiments, atoms cannot absorb energy from this electron region to generate energy transitions. When an atom traverses the electron region of a photon, it causes a time delay in the movement of electrons around the nucleus. This time delay can be calculated, and modern atomic clock technology can solve this problem, because the orbit of the electrons can provide precise time like the pendulum of the clock.
A quantum physicist at Ulm University in Germany and Ferdinand Schmidt Keller, also commented in the journal Nature, said that the research of French scientists is far from true quantum research. The work is still in the experimental stage. If a real quantum computer comes out, even today's supercomputer is in the same position as the abacus in front of the computer. Quantum computers do not use the 01 binary information storage mechanism, but on the basis of the principle of super-quantum state change. The change of quantum state is a superposition mechanism that occurs when the atomic energy level transitions or falls.
The minimum unit of quantum computer information storage can be 0, or 1 or both 0 and 1. This storage method can make the data storage of the computer amazingly improved, but only when managing and reading data. To take advantage of it. Although quantum storage research has just begun, scientists have discovered that photons, atoms and ions can be used as storage media for quantum computers. Schmidt Keller said: "Experiments by French scientists have shown that changes in the state of captured photons can completely control the atomic storage of information."