CN116808007A - A method for producing a light wave reflection blood vessel developing skin surface disinfectant - Google Patents

Abstract

The invention discloses a method for making a disinfectant solution for light wave reflection blood vessel development skin surface. The disinfectant solution is composed of mother liquor, disinfectant alcohol and distilled water in a certain proportion. By applying this developing disinfectant to the skin surface of the area to be acupuncture to perform sterilization and disinfection, it also enhances the reflective intensity of subcutaneous blood vessels, allowing medical staff to see the veins more clearly, perform accurate acupuncture, reduce the rate of mistaken acupuncture, and play a positive role in the skin. The dual synergistic effect of disinfection and vascular imaging reduces the difficulty of acupuncture and improves medical efficiency.

Description

A method for producing a light wave reflection blood vessel developing skin surface disinfectant

Technical field

The present invention relates to the technical field of cross-application design and manufacturing of medical products in the two disciplines of skin disinfection and blood vessel development, and in particular, to a light wave reflection blood vessel development skin surface disinfectant and a production method thereof.

Background technique

In hospitals, the commonly used skin surface disinfectant when injecting infusions is iodophor or 75% medical alcohol. Dip it with a cotton swab and wipe and disinfect the skin surface at the site where the needle needs to be inserted. Here, the skin disinfectant is It has a single function and can only sterilize and disinfect the surface of the skin. It cannot help identify the veins and blood vessels at the subcutaneous needle site to facilitate accurate needle placement. Therefore, when encountering infants, people with fat backs of hands, or people with difficulty finding blood vessels, Patients often need to be injected with needles several times, which brings pain to the patient and huge mental pressure to the nurse, resulting in conflicts between doctors and patients. Although the existing infrared vascular imaging device can help find subcutaneous blood vessels, However, it is expensive, large in size, and inconvenient to operate. Therefore, although it has been around for many years, it is difficult to popularize and apply it. These contradictions need to be resolved.

Contents of the invention

In order to solve the above problems, the inventor conducted intensive research and provided a method for making a light wave reflection blood vessel developing skin surface disinfectant. The present invention utilizes the strong reflection characteristics of 98% of blue light by animal subcutaneous veins, and compares the skin's Based on the color contrast principle of blue light with a reflectivity lower than 30%, a light wave reflecting blood vessel developing skin surface disinfectant is designed and manufactured. This developing disinfectant is applied to the skin surface of the area to be acupuncture for sterilization and disinfection while enhancing subcutaneous improvement. The reflective intensity of veins enables medical staff to see veins more clearly, perform accurate acupuncture, and reduce the rate of mistaken acupuncture. It plays a dual synergistic role in skin disinfection and blood vessel visualization, reduces the difficulty of acupuncture, and improves medical efficiency. Thus, the present invention was completed.

The present invention achieves the above object through the following technical means: a light wave reflection blood vessel developing skin surface disinfectant, wherein the disinfectant is composed of mother liquor, disinfecting alcohol and distilled water in a certain proportion.

Further, the mother liquor is composed of distilled water, reflective agent, reflection enhancer, penetrating agent, optical transparency agent, and nonionic surfactant.

Further, the reflective agent adopts model JH501 water-soluble nano-level non-toxic and environmentally friendly ice crystal blue pigment and/or JH101 young leaf green pigment.

Further, the reflection enhancer uses model L6829 water-soluble non-toxic environmentally friendly blue nano-fluorescent pigment and/or L6828 green nano-fluorescent pigment.

Further, the penetrant is a water-soluble penetrant.

Further, the optical transparency agent uses water-soluble polyethylene glycol 400 and/or glycerol and/or glucose.

Further, the nonionic surfactant uses water-soluble isopropyl alcohol amide df21 and/or sodium dodecyl benzene sulfonate and/or polyoxyethylene ether series nonionic surfactants.

Furthermore, the distilled water obtained by conventional evaporation and filtration must have a purity level that meets relevant national standards and an impurity content of no more than 0.01%.

Further, the disinfecting alcohol adopts industrial grade medical disinfecting alcohol that meets the national disinfection preparation requirements, and the alcohol purity is 99.98%.

Through the production method of a light wave reflection blood vessel developing skin surface disinfectant of the present invention, the following technical effects can be achieved:

This invention utilizes the strong reflection characteristics of 98% of blue light by animal subcutaneous veins, and the color contrast principle of skin with a reflectivity of less than 30%, to design and produce a light wave reflection blood vessel developing skin surface disinfectant, which develops this The disinfectant is applied to the skin surface of the area to be acupuncture for sterilization and disinfection. It also enhances the reflective intensity of subcutaneous blood vessels, allowing medical staff to see the veins more clearly, perform accurate acupuncture, reduce the rate of mispuncture, and play a role in skin disinfection and blood vessel visualization. The dual synergy reduces the difficulty of acupuncture, improves medical efficiency, and has positive social benefits.

Description of the drawings

Figure 1 is the effect of applying conventional 75% disinfectant on the back of the hand.

Figure 2 is a diagram of the blood vessel development effect after applying the product of the present invention on the back of the hand.

Figure 3 is the effect of applying conventional 75% disinfectant on the instep and the back of the hand.

Figure 4 is a diagram of the blood vessel development effect after applying the product of the present invention on the instep.

Detailed ways

A light wave reflection blood vessel developing skin surface disinfectant, which is composed of distilled water, alcohol, reflective agent, reflection enhancer, penetrant, optical transparency agent, and non-ionic surfactant. Agent, optical transparency agent, and non-ionic surfactant are prepared into a developing mother liquor according to the process requirements, and then the mother liquor, disinfecting alcohol, and distilled water are added and mixed in a certain proportion to produce a light wave reflective blood vessel developing skin surface disinfectant.

Furthermore, the reflective agent adopts model JH501 water-soluble nano-level non-toxic and environmentally friendly ice crystal blue pigment, also known as blue nano pigment, and JH101 young leaf green pigment, also known as green nano pigment, which can be used alone or in combination according to specific needs. When used, its function is: when applied to the surface of the skin with hidden veins and blood vessels under the skin, the reflection intensity of the blood vessels for blue light waves is enhanced, forming a greater color contrast with the surrounding skin, and improving the clarity of observation of subcutaneous veins and blood vessels; Since blood vessels also reflect green light to a certain extent, the reflection spectra of long-wave blue light and short-wave green light are connected together. When blue nanopigments and green nanopigments are mixed, the reflection of blood vessels on the blue-green composite light spectrum can be broadened. The light frequency band width further shows the characteristics of veins. When blue nanopigments and green nanopigments are mixed, the compound ratio is based on the weight ratio of 2-3 blue nanopigments to 1 green nanopigments.

Further, the reflection enhancer adopts models L6829 water-soluble non-toxic environmentally friendly blue nano-fluorescent pigment and L6828 green nano-fluorescent pigment. It can be used alone or in combination according to specific needs. The principle of action is that the nano-fluorescent pigment It will emit bright light under natural light. When applied alone or mixed with blue nanopigments and green nanopigments on the skin surface that hides veins and blood vessels, it can increase the reflected light intensity of blue and green light reflected from the surface of subcutaneous veins and blood vessels. Positive synergy to enhance observation clarity and improve observation effects; When blue nanophosphor powder and green nanophosphorus powder are mixed, the compounding ratio should be 2-3 of blue nanophosphor powder to 1 weight ratio of green nanophosphor powder The principle of action is the same as the principle of enhancing the observation effect when the above-mentioned blue nanopigment and green nanopigment are mixed and used.

Further, the said penetrants all adopt water-soluble penetrants, such as: 72-6 series penetrants, thiazone, azone, laurel azazone, dimethyl sulfoxide skin penetrant and propylene glycol penetration enhancer, as mentioned above The penetrating agent can be used alone or in combination according to specific needs. The principle of the penetrating agent in this product is to make the lipids (about 15%) in the stratum corneum of the skin irregularities after applying the penetrating agent on the skin surface. Arrangement, thereby cracking the lipid coating in the cells, allowing the light-transparent agent to pass through the stratum corneum, improving the transparency of the skin surface, making it easier to observe subcutaneous veins and blood vessels, and improving the reflectivity of blue-light and green-light nanopigments.

Further, the optical transparency agent adopts water-soluble polyethylene glycol 400, glycerin, and glucose, which can be used alone or in combination according to specific preparation requirements. The role of the optical transparency agent in this product is: in the penetration of the penetrant It penetrates into the skin below the stratum corneum with help, making the skin transparent and exposing the veins and blood vessels blocked by the stratum corneum for easy observation of blood vessels.

Further, the nonionic surfactant adopts water-soluble isopropanolamide df21, sodium dodecyl benzene sulfonate, and polyoxyethylene ether series nonionic surfactants. The nonionic surfactant is used in this disinfection. The function of the liquid is: the non-ionic surfactant itself has hydrophilic and lipophilic dual-sided activities. When added to the developing disinfectant of this product, it can synergistically promote the penetration of the penetrating agent into the stratum corneum of the skin and promote the pigment molecules. Dispersion properties for uniform distribution in disinfectant solutions.

Further, the distilled water is obtained by conventional evaporation and filtration, and the purity is required to comply with relevant national standards. Impurity content does not exceed 0.01%.

Furthermore, the disinfectant alcohol adopts industrial-grade medical disinfectant alcohol that meets the requirements of national disinfection preparations. The alcohol purity is 99.98%. Its function in this disinfectant is to denature and inactivate the dehydration protein of the internal cells of the bacteria, thereby achieving the goal of protecting the skin. Surface sterilization and disinfection.

Method for producing light wave reflection vascular imaging skin surface disinfectant:

Step 1: Prepare the mother liquor first;

Step 2: Combine the mother liquor and medical alcohol. The preparation ratio is as follows: First, according to the conventional production process, prepare 1000 ml of 75% medical disinfectant alcohol containing 25% water and 75% industrial alcohol. Add the developer slowly under low-speed stirring conditions. 50-100 ml of mother liquor, stir well and bottle for later use.

Examples of the proportions of developing mother liquor are as follows:

Example 1:

100 ml of distilled water, 0.01 g of reflective blue dye, 0.01 g of reflective enhancer blue phosphor, 3-5 g of penetrant thione, 10-20 g of light-transparent agent glycerol, and 12 grams of non-ionic surfactant Add 1 gram of sodium alkyl benzene sulfonate into the beaker and stir on an electric mixer at medium speed for 5-10 minutes to prepare a developing mother liquor.

Example 2:

100 ml of distilled water, 0.01 g of reflective blue dye, 0.01 g of reflection enhancer blue phosphor, 5 g of penetrating agent 72-6, 10 g of light transparency agent glucose, 1 g of nonionic surfactant polyoxyethylene ether , 0.1 g of preservative potassium sorbate, add it to the beaker, and stir on an electric mixer at medium speed for 5-10 minutes to prepare a developing mother liquor.

Example 3:

100 ml of distilled water, 0.01 g each of blue and green dyes as reflectants, 0.01 g each of blue and green phosphors as reflection enhancers, 10 g of penetrant azazone, 10-20 g of light-transparent agent glycerol, non-ionic surface Add 1 gram of the active agent sodium dodecylbenzene sulfonate into the beaker and stir on an electric mixer at medium speed for 5-10 minutes to prepare a developing mother liquor.

100 ml of distilled water, 0.01 g of reflective agent green dye, 0.01 g of reflection enhancer green fluorescent powder, 10 g of penetrating agent azone, 40020 g of optical transparency agent polyethylene glycol, non-ionic surfactant isopropyl amide df21/2 g. Add it to the beaker and stir on an electric mixer at medium speed for 5-10 minutes to prepare the developing mother liquor.

Example 4:

100 ml of distilled water, 0.01 g each of blue and green dyes as reflectants, 0.01 g each of blue and green phosphors as reflection enhancers, 10 g of penetrant azazone, 10-20 g of light-transparent agent glycerol, non-ionic surface Add 1 gram of the active agent sodium dodecylbenzene sulfonate into the beaker and stir on an electric mixer at medium speed for 5-10 minutes to prepare a developing mother liquor.

Refer to Figure 1 and Figure 2. The photo in Figure 1 is the back of the right hand after applying 75% conventional medical alcohol disinfectant. The photo in Figure 2 is the back of the same hand after applying the vascular developing skin surface disinfectant. By comparison, it can be seen that the vascular developing skin surface disinfectant is applied. It is significantly different from applying conventional medical alcohol disinfectant and achieves obvious blood vessel development effect.

Refer to Figure 3 and Figure 4. The photo in Figure 3 is the instep of the right foot after applying 75% conventional medical alcohol disinfectant. The photo in Figure 4 is the same instep after applying the disinfectant on the surface of the vascular developing skin. By comparison, it can be seen that the instep is applied on the surface of the vascular developing skin disinfectant. It is significantly different from applying conventional medical alcohol disinfectant and achieves obvious blood vessel development effect.

The specific operation process of using the disinfectant: The method of using the product of the present invention, a light wave reflection blood vessel developing skin surface disinfectant, is as follows: before applying the hanging bottle, the medical staff should first use a rubber band to tighten the wrist according to conventional methods to stop the blood flow in the veins. flow, then tap the surface of the back of the hand where the needle is to be inserted to stimulate the blood vessels to swell, and finally use a medical sterilized cotton swab dipped in the disinfectant solution to wipe the area where the needle needs to be inserted. At this time, the venous blood vessels hidden under the skin of the disinfected site will gradually change under the combined action of this medicinal solution. The clarity allows the medical staff to accurately find the blood vessel and insert the needle smoothly. After the needle insertion is completed, the rubber band is loosened and the operation is completed.

The present invention has been described in detail above in conjunction with specific embodiments and exemplary examples, but these descriptions should not be construed as limitations of the present invention. Those skilled in the art understand that, without departing from the spirit and scope of the present invention, various equivalent substitutions, modifications or improvements can be made to the technical solutions and implementations of the present invention, which all fall within the scope of the present invention. The scope of protection of the present invention is determined by the appended claims.

Claims (9)

1. A method for producing a light wave reflection blood vessel developing skin surface disinfectant, which is characterized in that the disinfectant is composed of mother liquor, disinfectant alcohol and distilled water in a certain proportion. 2. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 1, characterized in that the mother liquor is composed of distilled water, a reflective agent, a reflection enhancer, a penetrating agent, a light-transparent agent, and a non-ionic surface disinfectant. Composed of active agents. 3. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the reflective agent adopts model JH501 water-soluble nano-level non-toxic environmentally friendly ice crystal blue pigment and/or JH101 young leaves. green pigment. 4. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the reflection enhancer adopts model L6829 water-soluble non-toxic environmentally friendly blue nano-fluorescent pigment and/or L6828 green Nano fluorescent pigments. 5. A method for producing a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the penetrant is a water-soluble penetrant. 6. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the light transparency agent uses water-soluble polyethylene glycol 400 and/or glycerin and/or glucose. 7. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the nonionic surfactant adopts water-soluble isopropanolamide df21 and/or dodecylbenzene Sodium sulfonate and/or polyoxyethylene ether series nonionic surfactants. 8. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the distilled water is obtained by conventional evaporation and filtration, and the degree of purity is required to comply with relevant national standards, and the impurity content is not More than 0.01%. 9. A method for making a light wave reflection blood vessel developing skin surface disinfectant according to claim 2, characterized in that the disinfectant alcohol adopts industrial grade medical disinfectant alcohol that meets the national disinfection preparation requirements, and the alcohol purity is 99.98%.