Abstract: A method includes providing a structure. The structure includes an active region having a channel region and a source/drain region adjacent to the channel region, a gate structure over the channel region, a source/drain feature over the source/drain region, a contact etch stop layer (CESL) over the source/drain feature, and an interlayer dielectric (ILD) layer over the CESL. The method further includes forming a trench in the CESL and the ILD layer to expose the source/drain feature, providing a metal precursor and a phosphorus source in the trench, thereby forming a metal phosphide layer over the source/drain feature, forming a silicide layer on the metal phosphide layer, and forming a metal fill layer in the trench.

Abstract: A printable steel alloy can comprise 1.75 to 5 Cu; 1.9 to 8 Mo; 0 to 4.25 Ni; 0 to 1 Mn; 0 to 0.1 C; 0 to 6 Cr; 0 to 2.1 Si; 0 to 1.6 Ti; 0 to 1 Nb; 0 to 7 W; 0 to 6 Co; 0 to 1 Al; 0 to 0.1 N; 0 to 0.04 S; 0 to 0.005 B; 0 to 0.1 V; and, balance Fe. The alloy can have a strength factor (SF) of 23?SF?50, an austenite reversion factor (ARF) of 50?ARF?100, a heat transfer factor (HTF) of 4.9?HTF?9, a high temperature austenite stability factor (HTASF) of ?15?HTASF?40, and/or a NiCoTi factor (NiCoTiF) of 0?NiCoTiF?10.

Abstract: A method includes providing a structure including a bottom source/drain feature, a bottom interlayer dielectric (ILD) layer disposed over the bottom source/drain feature, a top source/drain feature disposed over the bottom ILD layer and the bottom source/drain feature, and a top ILD layer disposed over the top source/drain feature. The method further includes forming a trench extending in the top ILD layer and the bottom ILD layer. The trench exposes a top surface and a sidewall of the top source/drain feature and a top surface of the bottom source/drain feature. The method further includes forming first silicide layers on the top surface and the sidewall of the top source/drain feature and the top surface of the bottom source/drain feature, forming second silicide layers on the first silicide layers, and forming a metal fill layer in the trench. The first silicide layers and the second silicide layers have different compositions.

Abstract: A method includes forming a source/drain region, forming a contact etch stop layer over the source/drain region, forming an inter-layer dielectric over the contact etch stop layer, forming a first contact plug in the inter-layer dielectric and the contact etch stop layer, and performing an etching process to form a trench in the inter-layer dielectric and the contact etch stop layer. The source/drain region and the first contact plug are exposed to the trench. The method further includes performing a silicide formation process to form a silicide region on a surface of the source/drain region, and etching a metal layer that is deposited on dielectric regions and in the trench. The dielectric regions are exposed at a time the silicide formation process is started. A second contact plug is formed in the trench.

Abstract: A method includes forming a source/drain region, forming a contact etch stop layer over the source/drain region, forming an inter-layer dielectric over the contact etch stop layer, and performing an etching process to form a contact opening in the inter-layer dielectric and the contact etch stop layer. The source/drain region is exposed to the contact opening. A silicide formation process is performed to form a silicide region on a surface of the source/drain region. An etching process is performed to remove a metal that is deposited on dielectric regions, wherein the dielectric regions are exposed during the first silicide formation process. A contact plug is formed in the contact opening.

Abstract: A method for forming a semiconductor structure includes: forming a trench in a base structure; forming a dipole metal layer in the trench, the dipole metal layer having a lateral portion formed along a sidewall of the trench and a bottom portion formed along a bottom wall of the trench; removing the lateral portion of the dipole metal layer using an etchant including at least one of a metal halide and a hydrogen halide; after removal of the lateral portion of the dipole metal layer, forming a metal silicide layer over the bottom portion of the dipole metal layer using a precursor including the metal halide; and forming a metal contact in the trench.

Abstract: A battery includes an anode, a cathode, and a porous separator having a surface and percolating pores providing a porosity of from 20% to 80%. A passively impact resistant composite electrolyte includes an electrolyte and electrically non-conducting particles that enable shear thickening. The particles can have a polydispersity index of no greater than 0.1, an average particle size in a range of from 50 nm to 1 ?m, and an absolute zeta potential of greater than ±40 mV. The shear thickening enabling particles can be from 10 wt. % to 40 wt. % of the total weight of the separator and shear thickening particles. Between 20-40 wt. % of the shear thickening enabling particles are located in the pores of the separator.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the CM1 and the CM2 function as a substrate for a protease; the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: A battery includes an anode, a cathode, and a porous separator having a surface and percolating pores providing a porosity of from 20% to 80%. A passively impact resistant composite electrolyte includes an electrolyte and electrically non-conducting particles that enable shear thickening. The particles can have a polydispersity index of no greater than 0.1, an average particle size in a range of from 50 nm to 1 ?m, and an absolute zeta potential of greater than ±40 mV. The shear thickening enabling particles can be from 10 wt. % to 40 wt. % of the total weight of the separator and shear thickening particles. Between 20-40 wt. % of the shear thickening enabling particles are located in the pores of the separator.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the CM1 and the CM2 function as a substrate for a protease; the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: A battery includes an anode, a cathode, and a porous separator having a surface and percolating pores providing a porosity of from 20% to 80%. A passively impact resistant composite electrolyte includes an electrolyte and electrically non-conducting particles that enable shear thickening. The particles can have a polydispersity index of no greater than 0.1, an average particle size in a range of from 50 nm to 1 ?m, and an absolute zeta potential of greater than ±40 mV. The shear thickening enabling particles can be from 10 wt. % to 40 wt. % of the total weight of the separator and shear thickening particles. Between 20-40 wt. % of the shear thickening enabling particles are located in the pores of the separator.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first peptide mask (PM1), a third cleavable moiety (CM3), a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1, and the CM3 is positioned between the PM1 and CP1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: A battery includes an anode, a cathode, and a porous separator having a surface and percolating pores providing a porosity of from 20% to 80%. A passively impact resistant composite electrolyte includes an electrolyte and electrically non-conducting particles that enable shear thickening. The particles can have a polydispersity index of no greater than 0.1, an average particle size in a range of from 50 nm to 1 um, and an absolute zeta potential of greater than ±40 mV. The shear thickening enabling particles can be from 10 wt. % to 40 wt. % of the total weight of the separator and shear thickening particles. Between 20-40 wt. % of the shear thickening enabling particles are located in the pores of the separator.

Abstract: A method of making a passively impact resistant battery includes the steps of providing a porous separator material having pores and a surface, and providing a suspension composition including shear thickening enabling particles and a particle suspension solvent for suspending the shear thickening enabling particles. The shear thickening particles have a polydispersity index of no greater than 0.1, an average particle size of in a range of 50 nm to 1 um, and an absolute zeta potential of greater than ±40 mV. The suspension composition is applied to the separator material, wherein a portion of the particles and suspension solvent penetrate the pores. The suspension solvent is evaporated from the separator material. An anode layer and a cathode layer are applied. An electrolyte composition is applied between the anode layer and the cathode layer. The electrolyte composition includes an electrolyte solvent and an electrolyte salt.

Abstract: A temperature sensitive coating for application on a surface is provided. The temperature sensitive coating comprises an indicator component. The indicator component includes a carrier and a releasable compound that is held by the carrier. The releasable compound is in a gas state at a critical release temperature, and is released from the carrier at a temperature that is at or above the critical release temperature. A method of coating a surface of an energy storage system, and a method of detecting the approach of thermal runaway of an energy storage system, are also provided. The method includes coating a surface with the temperature sensitive coating, providing a gas sensor in the vicinity of the surface that is capable of detecting the presence of the releasable compound, monitoring the output of the sensor, and signaling an alarm when the sensor output indicates the presence of the releasable compound.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first peptide mask (PM1), a third cleavable moiety (CM3), a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1, and the CM3 is positioned between the PM1 and CP1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the CM1 and the CM2 function as a substrate for a protease; the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first peptide mask (PM1), a third cleavable moiety (CM3), a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1, and the CM3 is positioned between the PM1 and CP1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: Provided herein are activatable cytokine constructs that include: (a) a first monomer construct comprising a first mature cytokine protein (CP1), a first cleavable moiety (CM1), and a first dimerization domain (DD1), wherein the CM1 is positioned between the CP1 and the DD1; and (b) a second monomer construct comprising a second mature cytokine protein (CP2), a second cleavable moiety (CM2), and a second dimerization domain (DD2), where the CM2 is positioned between the CP2 and the DD2, where: the CM1 and the CM2 function as a substrate for a protease; the DD1 and the DD2 bind each other; and where the ACC is characterized by a reduction in at least one activity of the CP1 and/or CP2 as compared to a control level of the at least one activity of the CP1 and/or CP2.

Abstract: A method of making a passively impact resistant battery includes the steps of providing a porous separator material having pores and a surface, and providing a suspension composition including shear thickening enabling particles and a particle suspension solvent for suspending the shear thickening enabling particles. The shear thickening particles have a polydispersity index of no greater than 0.1, an average particle size of in a range of 50 nm to 1 um, and an absolute zeta potential of greater than ±40 mV. The suspension composition is applied to the separator material, wherein a portion of the particles and suspension solvent penetrate the pores. The suspension solvent is evaporated from the separator material. An anode layer and a cathode layer are applied. An electrolyte composition is applied between the anode layer and the cathode layer. The electrolyte composition includes an electrolyte solvent and an electrolyte salt.