Abstract: A process for manufacturing an additively-manufactured part from a metal powder having a composition having the following elements, expressed in content by weight: 6%?Ni?14%, 5%?Cr?10%, 0.5%?Si?2.5%, 0.5%?Ti?2%, C?0.04% and optionally containing 0.5%?Cu?2%, the balance being Fe and unavoidable impurities resulting from the elaboration, the metal powder having a microstructure including in area fraction more than 98% of a body-centered cubic crystalline phase, the process having a step during which at least a part of the metal powder is melted in an atmosphere substantially composed of an inert gas other than Argon or of a combination of inert gases other than Argon.

Abstract: A metal powder having a composition including the following elements, expressed in content by weight: 6.5%?Si?10%, 4.5%?Nb?10%, 0.2%?B?2.0%, 0.2%?Cu?2.0%, C?2% and optionally containing Ni?10 wt % and/or Co?10 wt % and/or Cr?7 wt % and/or Zr as a substitute for any part of Nb on a one-to-one basis and/or Mo as a substitute for any part of Nb on a one-to-one basis and/or P as a substitute for any part of Si on a one-to-one basis, the balance being Fe and unavoidable impurities resulting from the elaboration, the metal powder having a microstructure including at least 5% in area fraction of an amorphous phase, the balance being made of crystalline ferritic phases with a grain size below 20 ?m and possible precipitates, the metal powder having a mean sphericity SPHT of at least 0.80.

Abstract: A hot rolled steel having a composition including the following elements, expressed in percentage by weight: 15%?Nickel?25% 6%?Cobalt?12% 2%?Molybdenum?6% 0.1%?Titanium?1% 0.0001%?Carbon?0.03% 0.002%?Phosphorus?0.02% 0%?Sulfur?0.005%. 0 %?Nitrogen?0.01% and can contain one or more of the following optional elements 0%?Aluminum?0.1% 0%?Niobium?0.1% 0%?Vanadium?0.3% 0%?Copper?0.5% 0%?Chromium?0.5% the remainder composition being composed of iron and unavoidable impurities caused by processing, the microstructure of said steel sheet comprising in area fraction, 20% to 40% Tempered Martensite, at least 60% of Reverted Austenite and inter-metallic compounds of Molybdenum, Titanium and Nickel.

Abstract: A rolled steel sheet suitable for enamelling, having a carbon profile, defined by a gradient in the C-level from a level Csurface at at least one surface of the sheet, to a level Cbulk in the bulk of the sheet, Cbulk being higher than Csurface, and with Cbulk higher than 0 and lower than 0.08 wt %, Csurface between 0 and 0.015 wt %, Al between 0.012 wt % and 0.07 wt %, Mn between 0.12 wt % and 0.45 wt % and O lower than 0.01 wt % and wherein the depth where the C-level reaches (Cbulk+Csurface)/2, is higher than 75 ?m.

Abstract: A rolled steel sheet suitable for enameling, having a carbon profile, defined by a gradient in the C-level from a level Csurface at at least one surface of the sheet, to a level Cbulk in the bulk of the sheet, Cbulk being higher than Csurface, and with Cbulk higher than 0 and lower than 0.08 wt %, Csurface between 0 and 0.015 wt %, Al between 0.012 wt % and 0.07 wt %, Mn between 0.12 wt % and 0.45 wt % and O lower than 0.01 wt % and wherein the depth where the C-level reaches (Cbulk+Csurface)/2, is higher than 75 ?m.

Abstract: The present invention is related to a rolled steel sheet suitable for enamelling, said sheet having a carbon profile, defined by a gradient in the C-level from a level Csurface at at least one surface of the sheet, to a level Cbulk in the bulk of the sheet, Cbulk being higher than Csurface, and with: Cbulk higher than 0 and lower than or equal to 0.08 wt %, Csurface between 0 and 0.015 wt %, Al between 0.012 wt % and 0.07 wt %, Mn between 0.12 wt % and 0.45 wt %, O lower than 0.01 wt % and optionally: Cu between 0.025 wt % and 0.1 wt %, S between 0.008 wt % and 0.04 wt %, Ca between 0.0005 wt % and 0.005 wt %, the balance being Fe and incidental impurities, and wherein the depth where the C-level reaches Cbulk+Csurface)/2, is higher than 75 ?m. The invention is equally related to a method for producing said steel sheet.

Abstract: The present invention is related to process for producing an amorphous Fe-based bulk metallic glass product, formed of an alloy having a chemical formula of Fe100-a-b-c-d-x-y MaNbbSicBdIxJy wherein: • M is Co and/or Ni, •I is one or more elements of the group consisting of Al, Cr, Cu, Mn, C and P, •J is one or more elements of the group consisting of Ti, S, N and O and wherein a, b, c, d, x and y are satisfying the following conditions: 0 wt. %<a?46. 1 wt. %, 5.4 wt. %?b?12.4 wt. %, 2.2 wt. %?c?4.4 wt. %, 2 wt. %<d?6 wt. %, x?2 wt. % and y?0.2 wt. %, the process comprising the steps of producing a master alloy by melting starting materials, comprising Fe-containing alloys, and by melting said master and pouring the molten alloy into a mold.

Abstract: The present invention is related to process for producing an amorphous Fe-based bulk metallic glass product, formed of an alloy having a chemical formula of Fe100-a-b-c-d-x-y MaNbbSicBdIxJy wherein: .M is Co and/or Ni, .I is one or more elements of the group consisting of Al, Cr, Cu, Mn, C and P, .J is one or more elements of the group consisting of Ti, S, N and O and wherein a, b, c, d, x and y are satisfying the following conditions: 0 wt. %<a?46. 1 wt. %, 5.4 wt. %?b?12.4 wt. %, 2.2 wt. %?c?4.4 wt. %, 2 wt. %<d?6 wt. %, x?2 wt. % and y?0.2 wt. %, the process comprising the steps of producing a master alloy by melting starting materials, comprising Fe-containing alloys, and by melting said master and pouring the molten alloy into a mould.