Abstract: A nanoimprint lithography method includes contacting a composite polymerizable coating formed from a pretreatment composition and an imprint resist with a nanoimprint lithography template defining recesses. The composite polymerizable coating is polymerized to yield a composite polymeric layer defining a pre-etch plurality of protrusions corresponding to the recesses of the nanoimprint lithography template. The nanoimprint lithography template is separated from the composite polymeric layer. At least one of the pre-etch plurality of protrusions corresponds to a boundary between two of the discrete portions of the imprint resist, and the pre-etch plurality of protrusions have a variation in pre-etch height of ±10% of a pre-etch average height. The pre-etch plurality of protrusions is etched to yield a post-etch plurality of protrusions having a variation in post-etch height of ±10% of a post-etch average height, and the pre-etch average height exceeds the post-etch average height.

Abstract: A nanoimprint lithography method includes disposing a pretreatment composition including a polymerizable component on a substrate to form a pretreatment coating. Discrete imprint resist portions are disposed on the pretreatment coating, with each discrete portion of the imprint resist covering a target area of the substrate. The imprint resist is a polymerizable composition and includes a fluorinated photoinitiator. A composite polymerizable coating is formed on the substrate as each discrete portion of the imprint resist spreads beyond its target area. The composite polymerizable coating includes a mixture of the pretreatment composition and the imprint resist. The composite polymerizable coating is contacted with a template, and is polymerized to yield a composite polymeric layer on the substrate. The interfacial surface energy between the pretreatment composition and air exceeds the interfacial surface energy between the imprint resist and air or between at least a component of the imprint resist and air.

Abstract: A support tensor machine based neutral point grounding mode decision method and system adopts a support tensor machine method Based on three indexes, i.e., the power supply reliability index, safety index, and economical efficiency index, influences of different neutral point grounding modes are analyzed by employing the support tensor machine method to finally obtain a neutral point grounding mode capable of maximizing power supply reliability of a distribution network.

Abstract: The present disclosure discloses a blade seat assembly including a blade assembly, a clasp assembly, and a blade seat. The blade assembly includes a blade and a shaft, the blade being connected to one end of the shaft. The blade seat defines a mounting groove, and the other end of the shaft detachably is connected to the mounting groove via the clasp assembly. The present disclosure also provides a blending cup assembly and a food processor, which use the blade seat assembly. The technical scheme of the present disclosure aims to enable the blade assembly to be disassembled.

Abstract: A nanoimprint lithography method includes coating a surface of a nanoimprint lithography substrate with a pretreatment composition to yield a layer of the pretreatment composition on the surface of the substrate, disposing an imprint resist on the layer of the pretreatment composition to yield a composite layer on the surface of the substrate, contacting the composite layer with a nanoimprint lithography template, and forming a polymeric layer on the surface of the substrate by polymerizing the composite layer. The pretreatment composition includes a polymerizable component having a molecular mass between about 300 and about 750. The imprint resist is a polymerizable composition. The composite layer includes a mixture of the pretreatment composition and the imprint resist. An average spreading rate of the imprint resist to form the composite layer exceeds an average spreading rate of the imprint resist on the substrate under otherwise identical conditions.

Abstract: A support tensor machine based neutral point grounding mode decision method and system adopts a support tensor machine method Based on three indexes, i.e., the power supply reliability index, safety index, and economical efficiency index, influences of different neutral point grounding modes are analyzed by employing the support tensor machine method to finally obtain a neutral point grounding mode capable of maximizing power supply reliability of a distribution network.

Abstract: A compound of Formula A-1: where n is an integer and R is C1-10 alkyl. In some cases, n is an integer of 1 to 20 or 5 to 15. R may be substituted or unsubstituted. An adhesive composition may include a compound of Formula A-1. The adhesive composition may include at least one of a crosslinker, a catalyst, and a solvent. An imprint lithography stack may include a substrate and an adhesion layer adhered to the substrate, where the adhesion layer includes a compound of Formula A-1. Forming an adhesion layer on an imprint lithography substrate includes disposing an adhesive composition on the imprint lithography substrate and polymerizing the adhesive composition to yield the adhesion layer on the substrate, where the adhesive composition includes a compound of Formula A-1, where n is an integer and R is C1-10 alkyl.

Abstract: Facilitating throughput in nanoimprint lithography processes by using an imprint resist including fluorinated components and a substrate treated with a pretreatment composition to promote spreading of an imprint resist on the substrate. The interfacial surface energy between the pretreatment composition and air exceeds the interfacial surface energy between the imprint resist and air by at least 1 mN/m, and the contact angle of the imprint resist on the surface of the nanoimprint lithography template is less than 15°.

Abstract: A nanoimprint lithography method to remove uncured pretreatment composition from an imprinted nanoimprint lithography substrate. The method includes disposing a pretreatment composition on a nanoimprint lithography substrate to form a pretreatment coating and disposing discrete portions of imprint resist on the pretreatment coating, each discrete portion of the imprint resist covering a target area of the nanoimprint lithography substrate. A composite polymerizable coating is formed on the nanoimprint lithography substrate as each discrete portion of the imprint resist spreads beyond its target area, and the composite polymerizable coating is contacted with a nanoimprint lithography template. The composite polymerizable coating is polymerized to yield a composite polymeric layer and an uncured portion of the pretreatment coating on the nanoimprint lithography substrate, and the uncured portion of the pretreatment coating is removed from the nanoimprint lithography substrate.

Abstract: A nanoimprint lithography method includes disposing a pretreatment composition on a substrate to form a pretreatment coating. The pretreatment composition includes a polymerizable component. Discrete imprint resist portions are disposed on the pretreatment coating, with each discrete portion of the imprint resist covering a target area of the substrate. A composite polymerizable coating is formed on the substrate as each discrete portion of the imprint resist spreads beyond its target area. The composite polymerizable coating includes a mixture of the pretreatment composition and the imprint resist. The composite polymerizable coating is contacted with a template, and is polymerized to yield a composite polymeric layer on the substrate. The interfacial surface energy between the pretreatment composition-and air exceeds the interfacial surface energy between the imprint resist and air or between at least a component of the imprint resist and air.

Abstract: A nanoimprint lithography method includes contacting a composite polymerizable coating formed from a pretreatment composition and an imprint resist with a nanoimprint lithography template defining recesses. The composite polymerizable coating is polymerized to yield a composite polymeric layer defining a pre-etch plurality of protrusions corresponding to the recesses of the nanoimprint lithography template. The nanoimprint lithography template is separated from the composite polymeric layer. At least one of the pre-etch plurality of protrusions corresponds to a boundary between two of the discrete portions of the imprint resist, and the pre-etch plurality of protrusions have a variation in pre-etch height of ±10% of a pre-etch average height. The pre-etch plurality of protrusions is etched to yield a post-etch plurality of protrusions having a variation in post-etch height of ±10% of a post-etch average height, and the pre-etch average height exceeds the post-etch average height.

Abstract: An apparatus for controlling a vehicle, comprising: an upper level controller connected to a vehicle CAN (Controller Area Network) bus communication network by using a CAN bus communication mode, configured: to control a first control element connected to a vehicle CAN bus via the CAN bus communication network; and to control a second control element connected to a non-vehicle CAN bus via a hardwired connection.

Abstract: A nanoimprint lithography method includes coating a surface of a nanoimprint lithography substrate with a pretreatment composition to yield a layer of the pretreatment composition on the surface of the substrate, disposing an imprint resist on the layer of the pretreatment composition to yield a composite layer on the surface of the substrate, contacting the composite layer with a nanoimprint lithography template, and forming a polymeric layer on the surface of the substrate by polymerizing the composite layer. The pretreatment composition includes a polymerizable component having a molecular mass between about 300 and about 750. The imprint resist is a polymerizable composition. The composite layer includes a mixture of the pretreatment composition and the imprint resist. An average spreading rate of the imprint resist to form the composite layer exceeds an average spreading rate of the imprint resist on the substrate under otherwise identical conditions.

Abstract: A nanoimprint lithography method includes disposing a pretreatment composition including a polymerizable component on a substrate to form a pretreatment coating. Discrete imprint resist portions are disposed on the pretreatment coating, with each discrete portion of the imprint resist covering a target area of the substrate. The imprint resist is a polymerizable composition and includes a fluorinated photoinitiator. A composite polymerizable coating is formed on the substrate as each discrete portion of the imprint resist spreads beyond its target area. The composite polymerizable coating includes a mixture of the pretreatment composition and the imprint resist. The composite polymerizable coating is contacted with a template, and is polymerized to yield a composite polymeric layer on the substrate. The interfacial surface energy between the pretreatment composition and air exceeds the interfacial surface energy between the imprint resist and air or between at least a component of the imprint resist and air.

Abstract: A compound of Formula A-1: where n is an integer and R is C1-10 alkyl. In some cases, n is an integer of 1 to 20 or 5 to 15. R may be substituted or unsubstituted. An adhesive composition may include a compound of Formula A-1. The adhesive composition may include at least one of a crosslinker, a catalyst, and a solvent. An imprint lithography stack may include a substrate and an adhesion layer adhered to the substrate, where the adhesion layer includes a compound of Formula A-1. Forming an adhesion layer on an imprint lithography substrate includes disposing an adhesive composition on the imprint lithography substrate and polymerizing the adhesive composition to yield the adhesion layer on the substrate, where the adhesive composition includes a compound of Formula A-1, where n is an integer and R is C1-10 alkyl.

Abstract: A pattern is formed on a substrate with forming a layer of a curable composition (A1) containing a polymerizable compound (a1) on a surface of the substrate, then dispensing droplets of a curable composition (A2) containing a polymerizable compound (a2) dropwise discretely onto the curable composition (A1) layer, subsequently sandwiching a mixture layer of the curable composition (A1) and the curable composition (A2) between a mold and the substrate, then irradiating the mixture layer with light to cure the mixture layer, and releasing the mold from the mixture layer after the curing. The curable composition (A1) except a solvent has a viscosity at 25° C. of 40 mPa·s or more and less than 500 mPa·s. The curable composition (A2) except a solvent has a viscosity at 25° C. of 1 mPa·s or more and less than 40 mPa·s.

Abstract: A nanoimprint lithography method to remove uncured pretreatment composition from an imprinted nanoimprint lithography substrate. The method includes disposing a pretreatment composition on a nanoimprint lithography substrate to form a pretreatment coating and disposing discrete portions of imprint resist on the pretreatment coating, each discrete portion of the imprint resist covering a target area of the nanoimprint lithography substrate. A composite polymerizable coating is formed on the nanoimprint lithography substrate as each discrete portion of the imprint resist spreads beyond its target area, and the composite polymerizable coating is contacted with a nanoimprint lithography template. The composite polymerizable coating is polymerized to yield a composite polymeric layer and an uncured portion of the pretreatment coating on the nanoimprint lithography substrate, and the uncured portion of the pretreatment coating is removed from the nanoimprint lithography substrate.

Abstract: Facilitating throughput in nanoimprint lithography processes by using an imprint resist including fluorinated components and a substrate treated with a pretreatment composition to promote spreading of an imprint resist on the substrate. The interfacial surface energy between the pretreatment composition and air exceeds the interfacial surface energy between the imprint resist and air by at least 1 mN/m, and the contact angle of the imprint resist on the surface of the nanoimprint lithography template is less than 15°.

Abstract: A pattern is formed on a substrate with forming a layer of a curable composition (A1) containing a component (a1) as a polymerizable compound and a component (c1) as a surfactant on a surface of the substrate, then dispensing droplets of a curable composition (A2) containing a component (a2) as a polymerizable compound and a component (c2) as a surfactant dropwise discretely onto the layer formed of the curable composition (A1), subsequently sandwiching a mixture layer of the curable composition (A1) and the curable composition (A2) between a mold having a pattern and the substrate, then irradiating the mixture layer with light to cure the mixture layer, and releasing the mold from the mixture layer after the curing. The curable composition (A1) containing at least 0.5 wt % or more of the component (c1), the curable composition (A2) containing at least 0.5 wt % or more of the component (c2).

Abstract: A pattern is formed on a substrate with forming a layer of a curable composition (A1) containing a component (a1) serving as a polymerizable compound and a component (d1) serving as a solvent on a surface of the substrate, then dispensing droplets of a curable composition (A2) containing at least a component (a2) serving as a polymerizable compound dropwise discretely onto the layer of the curable composition, subsequently sandwiching a mixture layer of the curable composition (A1) and the curable composition (A2) between a mold and the substrate, then irradiating the mixture layer with light to cure the layer, and releasing the mold from the mixture layer after the curing.