NOVELTY - The method involves applying one directional force to a sliver structure (302) comprising a semiconductor material. The sliver structure is provided with an orientation material (332) on an edge (306), to cause the sliver structure to orient in a desired direction. The silver structure is deposited in a liquid medium, and directional force is applied by generating a directional flow of liquid medium. The sliver structure is deposited in liquid medium of sufficient density to provide a buoyancy force on the sliver structure.    USE - Method for handling silver structure configured as elongated solar cell used in solar panel.    ADVANTAGE - The inter-cell electrical interconnections of solar panel modules incorporating elongated solar cell sub-module assemblies can be established reliably without increasing the cost. The elongated solar cells are bifacial and can are perfectly symmetrical in physical appearance. Elongated solar cells are set with a very large aspect ratio, for easy warping or bending without causing damage during separation, handling, testing, binning, and assembly. The polarity of each solar cell can be maintained reliably during handling process. The solar module power output can be increased by exact orientation of the elongate solar cells, without causing damage of other cells of the solar panel module. Hence the operativity of the solar cell module can be increased.    DETAILED DESCRIPTION - The orientation material is formulated to have a density of one of less than a density of the semiconductor material, and the same as a density of the semiconductor material and greater than a density of the semiconductor material. The orientation material is formulated to cause the silver structure to sink and float in the liquid medium. The orientation material is the material reactive respectively to magnetic field and electric field. The silver structure is captured in a capture device to maintain the orientation of the silver structure. The capture device is equipped with capture slots to receive a single silver structure per capture slot. The capture slots are configured in a predetermined spacing, and silver structure is received in capture slots in predetermined spacing and pattern. The captured silver structures are arranged onto a support substrate for electrical coupling. The orientation material is removed by melting, volatilizing and evaporating process. The sliver structures having edges are formed in a bulk semiconductor substrate, and an orientation material is applied to the edges of each sliver structure to create an effective asymmetry about a transverse axis between the edges. The sliver structures are detached from bulk semiconductor substrate, and directional force is applied to the sliver structures to orient the sliver structures in a common direction responsive to the effective asymmetry created by the orientation material. The effective asymmetry is comprised of a spatial asymmetry, a density asymmetry and a buoyancy asymmetry. INDEPENDENT CLAIMS are included for the following:    (1) formation method of silver structure, which involves forming silver structures in a substrate material and applying the orientation material to the edges of silver structures. The silver structures are detached from substrate material by removing the orientation material from each silver structure; and    (2) a sliver structure comprises a main structure comprising a semiconductor substrate material having a first edge and a second edge (308) opposite to the first edge, and an orientation material located along at a portion of an edge of the main structure. The conductive materials are provided at the edges. The thickness of opposite major surfaces (314,316) of main structure is about 0.03-0.07 mm. An elongated structure is configured as a photovoltaic device which is a bifacial photovoltaic device. The orientation material is comprised of a polymer material and a conductive material.    DESCRIPTION OF DRAWING(S) - The drawing shows the perspective view of the silver structure configured as elongated solar cell.    Silver structure (302)    Edges of silver structure (306,308)    End edges of silver structure (310,312)    Major surfaces of silver structure (314,316)    Orientation material (332)