The present invention discloses a design and manufacturing method for a single-chip magnetic sensor bridge. The sensor bridge comprises four magnetoresistive elements. The magnetization of the pinned layer of each of the four magnetoresistive elements is set in the same direction, but the magnetization directions of the free layers of the magnetoresistive elements on adjacent arms of the bridge are set at different angles with respect to the pinned layer magnetization direction. The absolute values of the angles of the magnetization directions of the free layers of all four magnetoresistive elements are the same with respect with their pinning layers. The disclosed magnetic biasing scheme enables the integration of a push-pull Wheatstone bridge magnetic field sensor on a single chip with better performance, lower cost, and easier manufacturability than conventional magnetoresistive sensor designs.

Described is a method comprising: forming a magnet on a substrate or a template, the magnet having an interface; and forming a first layer of non-magnet conductive material on the interface of the magnet such that the magnet and the layer of non-magnet conductive material are formed in-situ. Described is an apparatus comprising: a magnet formed on a substrate or a template, the magnet being formed under crystallographic, electromagnetic, or thermodynamic conditions, the magnet having an interface; and a first layer of non-magnet conductive material formed on the interface of the magnet such that the magnet and the layer of non-magnet conductive material are formed in-situ.

Described is a method comprising: forming a magnet on a substrate or a template, the magnet having an interface; and forming a first layer of non-magnet conductive material on the interface of the magnet such that the magnet and the layer of non-magnet conductive material are formed in-situ. Described is an apparatus comprising: a magnet formed on a substrate or a template, the magnet being formed under crystallographic, electromagnetic, or thermodynamic conditions, the magnet having an interface; and a first layer of non-magnet conductive material formed on the interface of the magnet such that the magnet and the layer of non-magnet conductive material are formed in-situ.

Implementations described and claimed herein include a method for manufacturing monolithically-integrated on-slider hybridized electronics for magnetic read/write. The method includes forming a slider body, excising a void in a surface of the slider body, monolithically integrating an electronic block into the void of the slider body, polishing the surface of the slider body, and depositing functional layers on the surface of the slider body. By integrating electronics in close proximity to transducers, operational performance and functionality may be gained.

According to an embodiment, a magnetic storage device includes a semiconductor region including a trench; a gate electrode disposed in the trench; an insulation film covering the gate electrode and provided in a manner to fill the trench; and a magnetoresistive effect element including at least a first ferromagnetic layer, a second ferromagnetic layer, and a non-magnetic layer provided between the first ferromagnetic layer and the second ferromagnetic layer, the non-magnetic layer in a side surface of the magnetoresistive effect element including the non-magnetic layer being provided on a top surface of the insulation film.

According to an embodiment, a magnetic storage device includes a semiconductor region including a trench; a gate electrode disposed in the trench; an insulation film covering the gate electrode and provided in a manner to fill the trench; and a magnetoresistive effect element including at least a first ferromagnetic layer, a second ferromagnetic layer, and a non-magnetic layer provided between the first ferromagnetic layer and the second ferromagnetic layer, the non-magnetic layer in a side surface of the magnetoresistive effect element including the non-magnetic layer being provided on a top surface of the insulation film.