TW201326775A - Energy optical detecting apparatus - Google Patents

Abstract

The present invention provides an energy optical detecting apparatus, providing with a base. A control panel is provided on the base, and a blue light display monitor, a purple light display monitor, an energy display light and a zero button are provided on the control panel. A microprocessor is provided inside the base, where the microprocessor is electrically connected to the control panel. Supports are provided on the base. A blue light source projector and a purple light source projector are provided at two focus positions of a pair of spectacle glasses placed on the supports, respectively. In addition, a head shaped body is provided on the base. Each pupils position at two eye locations of the head shaped body is provided with an aperture, where a holder is provided inside the head shaped body. A blue light source receiver and a purple light source receiver are provided at the positions corresponding to the two apertures on the holder, respectively. An energy sensor is provided to both sides of the nose bridge of the head shaped body. The blue light source receiver, the purple light source receiver, and the energy sensor are electrically connected to the microprocessor. A hanger is provided to the opposing sides of the head shaped body. Accordingly, when a pair of spectacle glasses is placed on the head shaped body, the resistance of the glasses lenses relative to the purple light and blue light may be detected conveniently and rapidly at the same time, while spectacle glasses having an energy magnetic field may be detected simultaneously.

Description

Energy optical detector

The invention relates to an energy optical detector, in particular to a method for simultaneously and conveniently detecting the resistance of the spectacle lens to violet light and blue light, and simultaneously detecting whether the glasses have an energy magnetic field.

"Blu-ray" is a high-energy visible light with a wavelength of 400nm-460nm, which is extremely harmful to the eyes. Many common diseases of human eyes are caused by high-energy blue light. Especially terrible is that this high-energy blue light is almost nowhere. No, there are uncoordinated high-energy blue light in the light emitted by our daily LED lights, fluorescent lights, TVs, computers, etc. These blue lights have strong energy and can penetrate the crystals and vitreous of the eyes and reach the retina. The area of the macula is like a sharp blade piercing the crystals of the eye and the vitreous (especially the eyes of children), so that you can't open your eyes, tears, even pain, soreness, and repeated sputum will not help, if long-term high-energy short-wave blue light is neglected Preventing, the photosensitive cells of the retina will be killed in large amounts, which will eventually lead to decreased vision or even complete blindness.

"Purple (ultraviolet)" refers to the sun's rays with a wavelength between 100nm and 400nm. The cornea and crystals are the most frequently damaged tissues of the eye. Under strong ultraviolet radiation, the cornea on the surface of the eye will produce short-term inflammation and dry eyes. The blurred vision, the crystals are turbid, causing cataracts.

In order to prevent the damage of "Blu-ray" and "Purple Light" to the eyes, the general metropolis wears glasses to prevent it. However, although the commercially available glasses are advertised as having anti-blue light and anti-ultraviolet effects, they are not actually or resistive. Very low, and some professional optical manufacturers, Metropolis purchase a variety of optical detection instruments to detect different light sources to test their own products to ensure the quality of the products, but the general optical detection equipment is extremely expensive, and want to detect different light sources The impedance effect must be detected by different detection instruments, so the detection speed is extremely slow.

Moreover, computer users or long-time readers often feel uncomfortable symptoms such as sore eyes, bloating, dryness, and blurred vision. Therefore, there is a structure on the market that has far infrared rays or energy magnets on the nose pad or glasses frame. With these energy magnetic fields, eye fatigue and discomfort can be eliminated, but commercially available glasses are advertised as having energy, but it is not possible to detect whether or not there is energy.

Accordingly, the present inventors have invented the present invention in view of the fact that the detection of general glasses has the above-mentioned defects, and has been studied and designed.

The main object of the present invention is to provide an energy optical detector capable of simultaneously and conveniently detecting the resistance of an eyeglass lens to violet light and blue light, and simultaneously detecting whether the eyeglass has an energy magnetic field.

The energy optical detector of the present invention mainly comprises a base, and the base is provided with a control panel, and the control panel is provided with a blue display screen, a purple display screen, an energy display light and a zero return button. a microprocessor is disposed, the microprocessor is electrically connected to the control panel, and the base is provided with a bracket, and the bracket is respectively provided with a blue light source projector and a purple light source projection at the second focal length position of the glasses Further, a pedestal body is disposed on the pedestal, and a hole is formed in each of the two eye portions of the head body, and a fixing seat is disposed in the head body, and the fixing seat corresponds to the two holes A blue light source receiver and a purple light source receiver are respectively disposed at the position, and energy sensors are disposed on both sides of the nose portion of the head body, the blue light source receiver, the purple light source receiver and the energy sensor The utility model is electrically connected to the microprocessor, and a hanging rod is arranged on opposite sides of the head type body.

For the purpose of the present invention, the preferred embodiments of the invention are as follows:

An embodiment of the present invention, as shown in the first figure, is mainly provided with a pedestal 1 . The pedestal 1 is provided with a control panel 10 . The control panel 10 is provided with a blue display screen 11 and a purple display screen 12 . An energy display lamp 13 and a reset button 14 are provided. The base 1 is provided with a microprocessor 15 . The microprocessor 15 is electrically connected to the control panel 10 , and a bracket 2 is disposed on the base 1 . The bracket 2 is respectively provided with a blue light source projector 20 and a purple light source projector 21 at the focal length of the glasses, and a head body 3 is disposed on the base 1 , and the two eye portions 30 of the head body 3 are provided. Each of the positions of the pupils (ie, the focal lengths of the glasses) is provided with a through hole 31. The fixing body 32 is provided with a fixing seat 32. The fixing seat 32 is respectively provided with a blue light source receiver 33 corresponding to the positions of the two through holes 31. And a purple light source receiver 34, and an energy sensor 36 is disposed on each side of the nose portion 35 of the head body 3, the blue light source receiver 33, the purple light source receiver 34 and the energy sensor 36 Electrically connected to the microprocessor 15, the two sides of the head body 3 are oppositely disposed A hanging rod 37, thus, is the structure of an optical detector energy.

When using, please refer to the first to third figures, first press the zero button 14 on the control panel 10 on the base 1, and the blue display screen 11 and the red light display screen 12 are reset to zero (the display value of the zero return is 100, as shown in the first figure), and the energy display lamp 13 is in a non-light state, and then the glasses 4 to be inspected are hung on the head-type body 3, so that the glasses 4 are mirrored by 40, respectively. The nose portion 41 of the eyeglass body 4 is hung on the nose bridge portion 35 of the head body 3, and the energy magnet 42 on the nose pad portion 41 corresponds to the nose bridge portion 35. The energy sensor 36 is disposed, and the lens 43 of the glasses 4 is located between the bracket 2 and the head body 3, and the focal length of the two lenses 43 is aligned with the blue light source projector 20 and the purple light source on the bracket 2. The projector 21 and the head body 3 have two holes 31, so that the blue light source is projected by the blue light source projector 20 on the bracket 2, and the purple light source projector 21 projects the purple light source (such as the third As shown in the figure, the projected light source portion is blocked by the lens 4 lens 43 and some of the light that is not blocked is worn. The lens 43 of the lens 4 passes through the two through holes 31 of the head body 3, and is received by the blue light source receiver 33 and the purple light source receiver 34 on the fixing base 32, and the received light source is micro-processed. The processing of the device 15 is converted into a numerical value and displayed on the blue light display screen 11 and the purple light display screen 12. For example, if the display value is 20, it indicates that the detected lens 43 can block 80% of harmful blue light and purple light (such as the second figure). Illustrated), and so on, and by the energy sensor 36 provided on the head body 3, it can be sensed whether the energy magnet 42 on the nose pad portion 41 of the eyeglass 4 has energy, if it has energy The energy display lamp 13 on the control panel 10 is illuminated. Thus, the glasses 4 are placed on the energy optical detector of the present invention, and the resistance of the lens 43 to the violet and blue light can be simultaneously detected and simultaneously detected. Whether the glasses 4 have an energy magnetic field, the detection is very convenient and fast, and only the energy optical detector of the invention needs to be purchased to simultaneously detect the impedance of different light sources and whether there is energy, which can greatly reduce the cost of purchasing the detection instrument.

In view of the above, the present invention has achieved the intended use and efficacy, and is more desirable and practical than the prior art, but the above embodiments are only specifically described for the preferred embodiment of the present invention. The present invention is not intended to limit the scope of the invention, and all other equivalents and modifications may be included in the scope of the invention covered by the invention.

1. . . Pedestal

10. . . control panel

11. . . Blu-ray display screen

12. . . Violet display screen

13. . . Energy display light

14. . . Zero button

15. . . microprocessor

2. . . support

20. . . Blue light projector

twenty one. . . Purple light projector

3. . . Head type body

30. . . Eye area

31. . . perforation

32. . . Fixed seat

33. . . Blue light source receiver

34. . . Purple light source receiver

35. . . Nose part

36. . . Energy sensor

37. . . Hanging rod

4. . . glasses

40. . . Mirror foot

41. . . Nose pad

42. . . Energy magnet

43. . . lens

The first figure is a perspective view of an embodiment of the present invention.

The second figure shows a schematic view of the stereoscopic use of the glasses for the embodiment of the present invention.

The third figure is a schematic view showing the use of the glasses for detecting the glasses according to an embodiment of the present invention.

1. . . Pedestal

10. . . control panel

11. . . Blu-ray display screen

12. . . Violet display screen

13. . . Energy display light

14. . . Zero button

15. . . microprocessor

2. . . support

20. . . Blue light projector

twenty one. . . Purple light projector

3. . . Head type body

30. . . Eye area

31. . . perforation

32. . . Fixed seat

33. . . Blue light source receiver

34. . . Purple light source receiver

35. . . Nose part

36. . . Energy sensor

37. . . Hanging rod

Claims (1)

An energy optical detector mainly comprises a base, and the base is provided with a control panel, wherein the control panel is provided with a blue display screen, a purple display screen, an energy display light and a zero return button, wherein the base is provided with a microprocessor, the microprocessor is electrically connected to the control panel, and a bracket is disposed on the base, and the bracket is respectively provided with a blue light source projector and a purple light source projector at two focal length positions of the glasses. In addition, a pedestal body is disposed on the pedestal, and a hole is formed in each of the two eye portions of the head body, and a fixing seat is disposed in the head body, and the position of the fixing hole corresponding to the two holes is respectively a blue light source receiver and a purple light source receiver are disposed, and energy sensors are disposed on both sides of the nose portion of the head body, the blue light source receiver, the purple light source receiver and the energy sensor system The microprocessor is electrically connected, and a hanging rod is disposed on opposite sides of the head body.