11 results about "Thin layer" patented technology

A lubricant applying unit includes a lubricant composed of metal salt of fatty acid; an applying member that applies the lubricant on a subject under lubricant application; and a spreading member that forms a thin layer of the lubricant applied on the subject. The spreading member spreads the lubricant in such a manner that a thickness of the thin layer is in a range of 8 nanometers to 12 nanometers.

Present invention describes a patterned and coated micro- and nano-scale fibers elastomeric material for enhanced adhesion in wet or dry environments. A multi-step fabrication process including optical lithography, micromolding, polymer synthesis, dipping, stamping, and photopolymerization is described to produce uniform arrays of micron-scale fibers with mushroom-shaped tips coated with a thin layer of an intrinsically adhesive synthetic polymer, such as lightly crosslinked p(DMA-co-MEA).

A thin layer comprising at least a metal and a non-metallic chemical element is deposited on an oxidized layer of a substrate arranged in a reactor. The thin layer is formed by a plurality of superposed atomic layers formed by repetition of a reaction cycle comprising at least a first step of injecting a first halogenated metallic reagent into the reactor, a first reactor purging step, a second step of injecting a second reagent comprising the non-metallic chemical element into the reactor and a second reactor purging step. The process comprises, after each deposition of an atomic layer, at least one densification sequence of the atomic layer comprising a third purging step, an additional injection step of the second reagent and a fourth purging step. The time length of a densification sequence is substantially longer than the time length of a reaction cycle.

A method of producing a powder mass for a lithium battery, the method comprising: (a) mixing graphene sheets and an elastomer or its precursor in a liquid medium or solvent to form a suspension; (b) dispersing a plurality of particles of an anode active material in the suspension to form a slurry; and (c) dispensing the slurry and removing the solvent and/or polymerizing/curing the precursor to form the powder mass, wherein the powder mass comprises multiple particulates of the anode active material, wherein at least one of the particulates is composed of one or a plurality of the particles encapsulated by a thin layer of graphene/elastomer composite having a thickness from 1 nm to 10 μm, a lithium ion conductivity from 10⁻⁷ S/cm to 10⁻² S/cm and an electrical conductivity from 10⁻⁷ S/cm to 100 S/cm.

The present invention relates to a flexible sheet of wood strips for use in the fabrication of engineered floor boards or wood sheets and including the machine and method of manufacture of the flexible sheet of wood strips. The wood strips provide a wood floor which has much more stability than a solid wood plank which is much more affected by the temperature in a room and the moisture under the floor board. Also solid wood planks are much more expensive than engineered wood planks where only a very thin layer of quality wood material is utilized. The transverse wood strips are constructed of inferior wood material. Two or more treads of flexible material may be secured transversely to the wood strips to provide additional retention of the wood strips in the flexible sheet.

The invention provides a test card capable of avoiding the influence of wet gas on the accuracy in a test process and application of the test card. The test card comprises a test strip and a card box,wherein the card box is provided with a detection window; a dampproof thin layer for isolating environmental wet gas covers the detection window; the dampproof thin layer is a lightproof material orlight-transmitting material thin layer. The application is that the test card is applied to immunochromatography, and particularly to detection of a nitrotyrosine indicator. The test card can avoid the influence of environmental humidity in the detection process, so that the stability and the consistency of a test card detection result are improved; meanwhile, the application range of the test card to the environment is enlarged, so that the test card is particularly suitable for measurement under a high-humidity environment; when the test card is applied to detection of nitrotyrosine, quick and quantitative detection of the nitrotyrosine can be realized; moreover, a requirement on assorted equipment is low, and the detection process can be greatly simplified; the test card has the characteristics of wide linear range, high accuracy, high repetitiveness and the like.

The invention relates to a Zn1-xMgxO group heterojunction and a preparation method of the Zn1-xMgxO group heterojunction. The heterojunction is composed of an n-Zn1-xMgxO thin layer and a p-Ni1-yMgyO thin layer which are positioned on a substrate. The preparation method includes the following steps: (1) mixing ZnO and MgO with Al2O3 powder or Ga2Ob powder, compression molding and sintering the mixture, and obtaining Zn1-xMgxO ceramic target material mixed with Al or Ga, (2) mixing NiO, MgO and Li2CO3 powder, compression molding and sintering the mixture, and obtaining Li1-xMgxO ceramic target material mixed with Li, (3) putting the substrate in a pulsed laser deposition device, adjusting the distance between the target materials and the substrate, depositing the n-Zn1-xMgxO thin layer on the substrate using the Ni1-xMgxO ceramic target as sputtering target material under proper substrate temperature, oxygen pressure and laser frequency, (4) depositing the p-Ni1-yMgyO thin layer on the n-Zn1-xMgxO thin layer using the Ni1-xMgxO ceramic target mixed with Li as sputtering target material, and obtaining the Zn1-xMgxO group heterojunction. The Zn1-xMgxO group heterojunction preparation method has the advantages that preparation method is simple, cost is low, producing conditions are easy to control, compatibility of interface lattices is good, and performance of components is improved. Further, the Zn1-xMgxO group heterojunction has a wide application prospect in short wave optoelectronic devices and transparent electronics field.

The invention provides a cotton-wadding machine and a method for processing cotton slice in the field of daily necessities. The structure of the cotton-wadding machine is that: two cotton-wadding machines are arranged on the same surface in opposite vertex or bevel. Guide rolls of the cotton-wadding machines are arranged on the cotton-wadding machines through guide roll brackets and are connected with the power of the hosts of the cotton-wadding machines. Underground rooms and ascending ladders are arranged at the lower parts of the cotton-wadding machines. Winding rollers of the cotton slice of the bedding are arranged in the underground room through brackets of the winding roller of the cotton slice of the bedding; the winding roller is dynamically connected with one end guide roll through the power transmission belt of the winding roll and the guide roll. The processing method of the cotton slice of the bedding comprises the steps: the cotton wool is filled manually through the cotton-wadding machine; the filling is little at a seaming part so as to form a thin layer; the cotton wool layer is overlapped marginally when passing through the winding rollers of the cotton-wadding machine and forms broad-width bedding cotton slice. The method can utilize the cotton-wadding machine to realize split joint of the cotton wool and produce the broad-width double bedding cotton slice. The method has the advantages of high production efficiency, good joint and no gaps. The method is applicable to the production of bedding articles in the field of daily necessities.

The invention discloses a negative plate of a multi-element nano vanadium power battery and a preparation method for the negative plate of the multi-element nano vanadium power battery. The plate comprises a negative current collector of which the upper and lower surfaces are sequentially provided with a middle thin layer and an active outer layer from inside to outside respectively. In the negative plate of the multi-element nano vanadium power battery and the preparation method for the negative plate of the multi-element nano vanadium power battery, the upper and lower rough surfaces of the negative current collector are sequentially provided with the middle thin layer and the active outer layer from inside to outside respectively, and the middle thin layer is 1 to 5 microns thick and comprises components which are substantially the same as those of the active outer layer, so that adhesive forces between the middle thin layer and the negative current collector and between the middle thin layer and the active outer layer are strong, the powder dropping phenomenon of the negative plate of the multi-element nano vanadium power battery is effectively prevented, and the service life of the negative plate of the multi-element nano vanadium power battery is prolonged.