Systems and methods for flow cells are provided. Flow cells may encompass a range of fluidic devices for various applications ranging from microfluidic systems to bulk phase flow systems. Flow cells may comprise one or more components for passive or active fluid transfer. Descriptions are provided for advantageous methods of fabricating flow cells for particular applications such as biological assays. Provided is a composition, comprising a first substrate comprising a first covalently-bound ligand; and a second substrate comprising a second covalently-bound ligand; wherein the first covalently-bound ligand and the second covalently-bound ligand are covalently bonded to form a heterocyclic compound. Also provided is a flow cell device, comprising: a first substrate comprising a microfabricated surface; and a second substrate comprising a non-patterned surface; wherein the first substrate is joined to the second substrate to form an enclosure; and wherein the microfabricated surface comprises at least one chamber, wherein the chamber comprises a microarray of active sites with specific functionalization separated by an optically resolvable distance and a functionalized surface comprising a passivating group or a blocking group; and wherein each active site of the microarray of active sites comprises a capture agent.

Multispectral camouflage systems, apparatuses, and methods describes herein may include an assembled array of one or more discrete camouflage units, wherein each of the one or more discrete camouflage units includes a composite material having at least one predetermined structurally related property and at least one predetermined camouflage-related property, and wherein each of the one or more discrete camouflage units is joined to one or more neighboring unit to provide a laterally positioned camouflage cover configured to conceal an object from visible detection, infrared detection, thermal imaging, and radar detection.

The present invention relates to a method for manufacturing a composite sheet comprising an aerogel sheet, which comprises: a step (S10) of preparing a fiber sheet (10); a step (S20) of laminating the aerogel sheet (30) on each of both surfaces of the fiber sheet (10); and a step (S30) of applying heat and a pressure to the aerogel sheet (30) and the fiber sheet (10), which are laminated, to bond the sheets to each other and to manufacture the composite sheet (40) in which the aerogel sheet (30), the fiber sheet (10), the aerogel sheet (30) are laminated.

A technique for protecting a portion of a screen panel during a process for disassembling and servicing a display screen device is provided. A first part of the display screen device is separated from a screen panel part of the display screen device, where the screen panel part includes a main screen portion and a circuit of flexible printable circuit board (FPCB) portion. An encapsulant is applied onto a break protectable layer (BPL) of the circuit of flexible printable circuit board (FPCB) portion. The screen panel part is washed, with a solvent to remove residue from the main screen portion.

Systems and techniques are provided for laminate material bonding. A bonding agent may be applied to a first layer. A second layer may be placed onto the bonding agent on the first layer to form a laminate material. The laminate material may be placed between a first piece of non-compliant material with a first piece of compliant material and a second piece of non-compliant material with a second piece of compliant material. The laminate material may be in contact with the first piece non-compliant material and the second piece of non-compliant material. Pressure may be applied to the laminate material by applying pressure to the first piece of compliant material for a curing time of the bonding agent.

The present invention relates to a transferring method of graphene using a self-adhesive film.

A technique for protecting a portion of a screen panel during a process for disassembling and servicing a display screen device is provided. A first part of the display screen device is separated from a screen panel part of the display screen device, where the screen panel part includes a main screen portion and a circuit of flexible printable circuit board (FPCB) portion. An encapsulant is applied onto a break protectable layer (BPL) of the circuit of flexible printable circuit board (FPCB) portion. The screen panel part is washed, with a solvent to remove residue from the main screen portion.

The present invention relates to a method for manufacturing a composite sheet comprising an aerogel sheet, which comprises: a step (S10) of preparing a fiber sheet (10); a step (S20) of laminating the aerogel sheet (30) on each of both surfaces of the fiber sheet (10); and a step (S30) of applying heat and a pressure to the aerogel sheet (30) and the fiber sheet (10), which are laminated, to bond the sheets to each other and to manufacture the composite sheet (40) in which the aerogel sheet (30), the fiber sheet (10), the aerogel sheet (30) are laminated.

Systems and techniques are provided for laminate material bonding. A bonding agent may be applied to a first layer. A second layer may be placed onto the bonding agent on the first layer to form a laminate material. The laminate material may be placed between a first piece of non-compliant material with a first piece of compliant material and a second piece of non-compliant material with a second piece of compliant material. The laminate material may be in contact with the first piece non-compliant material and the second piece of non-compliant material. Pressure may be applied to the laminate material by applying pressure to the first piece of compliant material for a curing time of the bonding agent.

Electrotechnical thin layers which can be used as a heating resistor and/or substrate for conductive layers are produced, in established methods, at high prices and extremely slowly. This problem is solved by virtue of a redox-reactively-deposited base layer which contains graphite, is formed at room temperature and on which, in the same sense, a metal forms a micrometer-scale metal layer within minutes to a few seconds by means of a redox reaction, at room temperature and during the definitive curing process. The double layer made available in this manner is highly flexible, allows soldering on copper layers, and can be used particularly advantageously as a thin-layer heating system.