Abstract: Method and system for combined computerized and human experts aided outfit selection are provided herein. The method may include the following steps: presenting questions and receiving answers from users over the at least one user terminal, wherein the answers are indicative of fashion preference of the users; storing user profile data and their respective fashion preferences based on the answers; enabling expert users to generate, over expert terminals, for a giver user profile, an outfit, wherein the generated outfit is selected from a plurality of outfit items stored on a database; monitoring the generating of the outfits by the expert users, to yield monitoring data; storing match data indicating of match between user profiles and generated outfits, based on the monitoring data; and dispatching an outfit to the at least one user, based on fashion preference of the user, a respective user profile, and the match data.

Abstract: A focused ion source based on a Hall thruster with closed loop electron drift and a narrow acceleration zone is disclosed. The ion source of the invention has an ion focusing system consisting of two parts. The first part is a ballistic focusing system in which the aperture through which the beam exits the discharge channel is tilted. The second is a magnetic focusing system which focuses the ion beam exiting the discharge channel by canceling a divergent magnetic field present at the aperture through which the beam exits the discharge channel. The ion source of the invention also has an in-line hollow cathode capable of forming a self-sustaining discharge. The invention further reduces substrate contamination, while increasing the processing rate. Further the configuration disclosed allows the ion source to operate at lower operational gas pressures.

Abstract: An amorphous soft magnetic thin film material for forming shielding and keeper applications in MRAM devices. The amorphous soft magnetic material may be deposited using Physical Vapor Deposition (PVD) in the presence of a magnetic field, in order to form shielding layers and keepers in a multi-layer metallization process. The soft magnetic material may be an amorphous metallic alloy, such as CoZrX, where X may be Ta, Nb, Pd and/or Rh.

Abstract: The present invention discloses technology for thin film ion beam sputter deposition on a substrate. The apparatus is a self-contained ion beam deposition source, which can be attached to or positioned inside of a vacuum chamber where substrates are located. This source consists of one or more ion beam sources combined with one or more sputtering targets and a unified magnetic field acting as a devise controlling delivery of the charged particles to the treated by the Iontron workpiece (substrate). The ion beam emits ion beams toward the target that generate sputtered particles directed toward the substrate, thus creating a thin film on the surface of the substrate. The target can be electrically biased, not biased or floating, thus allowing for modulation of the location upon which the charged ions impinge the target. Additionally, the position of the target can be adjusted relatively to the ion beam.

Abstract: A focused ion source based on a Hall thruster with closed loop electron drift and a narrow acceleration zone is disclosed. The ion source of the invention has an ion focusing system consisting of two parts. The first part is a ballistic focusing system in which the aperture through which the beam exits the discharge channel is tilted. The second is a magnetic focusing system which focuses the ion beam exiting the discharge channel by canceling a divergent magnetic field present at the aperture through which the beam exits the discharge channel. The ion source of the invention also has an in-line hollow cathode capable of forming a self-sustaining discharge. The invention further reduces substrate contamination, while increasing the processing rate. Further the configuration disclosed allows the ion source to operate at lower operational gas pressures.

Abstract: An amorphous soft magnetic thin film material for forming shielding and keeper applications in MRAM devices. The amorphous soft magnetic material may be deposited using Physical Vapor Deposition (PVD) in the presence of a magnetic field, in order to form shielding layers and keepers in a multi-layer metallization process. The soft magnetic material may be an amorphous metallic alloy, such as CoZrX, where X may be Ta, Nb, Pd and/or Rh.

Abstract: An amorphous soft magnetic thin film material for forming shielding and keeper applications in MRAM devices. The amorphous soft magnetic material may be deposited using Physical Vapor Deposition (PVD) in the presence of a magnetic field, in order to form shielding layers and keepers in a multi-layer metallization process. The soft magnetic material may be an amorphous metallic alloy, such as CoZrX, where X may be Ta, Nb, Pd and/or Rh.

Abstract: The interfacial joint area of a target/backing plate assembly is sealed so as to inhibit the migration of air and/or water vapor that may be present or trapped along the interfacial surfaces. A pool or bead of molten solder is placed along the interfacial joint and moved continuously around the full 360° circumference of the assembly so as to cover and seal the boundary area. The solder is melted, preferably, by e-beam welding in a vacuum or the like.

Abstract: An amorphous soft magnetic thin film material for forming shielding and keeper applications in MRAM devices. The amorphous soft magnetic material may be deposited using Physical Vapor Deposition (PVD) in the presence of a magnetic field, in order to form shielding layers and keepers in a multi-layer metallization process. The soft magnetic material may be an amorphous metallic alloy, such as CoZrX, where X may be Ta, Nb, Pd and/or Rh.