Abstract: An electrochemical cell includes a housing defining an interior space of the electrochemical cell; and a lid disposed on a first face of the electrochemical cell defined by a length and a thickness of the housing. A dimension of the housing extending perpendicular to the first face of the electrochemical cell is a height of the housing, and the length of the housing is greater than the height of the housing. An anode and a cathode are disposed in the interior space of the electrochemical cell, and at least one of the anode or the cathode is connected to the lid.

Abstract: A bio-mineralized composition for use in an electrochemical cell is described. The bio-mineralized composition may comprise a material represented by general formula y[Li1±xMaOc].(1-y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Ma].(1-y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Li1±xMaOc].w[Li2±xMaOc].(1-y-w)[Mb(PO4)3±d(Ap)1±e].Cz or y[MaOv].(1-y)[Mb(PO4)3±d(Ap)1±e].Cz where M represents at least one element; Ap represents group of mixtures; C represents Carbon or its allotropes; P represents element phosphorous; Si represents silicon; Li represents lithium; B represents boron; O represents oxygen and x, y, z, w, a, b, c, d and e represent a number.

Abstract: A bio-mineralized composition for use in an electrochemical cell is described. The bio-mineralized composition may comprise a material represented by general formula y[Li1±xMaOc].(1-y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Ma].(1-y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Li1±xMaOc].w[Li2±xMaOc].(1-y-w)[Mb(PO4)3±d(Ap)1±e].Cz or y[MaOy].(1-y)[Mb(PO4)3±d(Ap)1±e].Cz where M represents at least one element; Ap represents group of mixtures; C represents Carbon or its allotropes; P represents element phosphorous; Si represents silicon; Li represents lithium; B represents boron; O represents oxygen and x, y, z, w, a, b, c, d and e represent a number.

Abstract: A bio-mineralized composition for use in an electrochemical cell is described. The bio-mineralized composition may comprise a material represented by general formula y[Li1±xMaOc].(1?y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Ma].(1?y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Li1±xMaOc].w[Li2±xMaOc].(1?y?w)[Mb(PO4)3±d(Ap)1±e].Cz or y[MaOv].(1?y)[Mb(PO4)3±d(Ap)1±e].Cz where M represents at least one element; Ap represents group of mixtures; C represents Carbon or its allotropes; P represents element phosphorous; Si represents silicon; Li represents lithium; B represents boron; O represents oxygen and x, y, z, w, a, b, c, d and e represent a number.

Abstract: A bio-mineralized composition for use in an electrochemical cell is described. The bio-mineralized composition may comprise a material represented by general formula y[Li1±xMaOc].(1?y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Ma].(1?y)[Mb(PO4)3±d(Ap)1±e].Cz or y[Li1±xMaOc].w[Li2±xMaOc].(1?y?w)[Mb(PO4)3±d(Ap)1±e].Cz or y[MaOv].(1?y)[Mb(PO4)3±d(Ap)1±e].Cz where where M represents at least one element; Ap represents group of mixtures; C represents Carbon or its allotropes; P represents element phosphorous; Si represents silicon; Li represents lithium; B represents boron; O represents oxygen and x, y, z, w, a, b, c, d and e represent a number.

Abstract: A bio-mineralized composition for use in an electrochemical cell is described. The bio-mineralized composition may comprise a material represented by general formula y[Li1±xMaPOc).(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Ma].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaSiaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz, or y[Li1±xMaOc].w[Li2±xMaOc].(1-y-w)[Mb(POc)3±d(Ap)1±e].Cz, or y[Li1±xMaBOc].(1 -y)[Mb(POc)3±d(Ap)1±e].Cz, or y[MaOx].(1-y)[Mb(POc)3±d(Ap)1±e].Cz where M represents at least one element; Ap represents group of mixtures; C represents Carbon or its allotropes; P represents element phosphorous; Si represents silicon; Li represents lithium; B represents boron; O represents oxygen and x, y, z, w, a, b, c, d and e represent a number.

Abstract: The specification relates to a composite particle for storing lithium. The composite particle is used in an electrochemical cell. The composite particle includes a metal oxide on the surface of the composite particle, a major dimension that is approximately less than or equal to 40 microns and a formula of MM?Z, wherein M is from the group of Si and Sn, M? is from a group of Mn, Mg, Al, Mo, Bronze, Be, Ti, Cu, Ce, Li, Fe, Ni, Zn, Co, Zr, K, and Na, and Z is from the group of O, Cl, P, C, S, H, and F.

Abstract: The specification relates to a composite particle for storing lithium. The composite particle is used in an electrochemical cell. The composite particle includes a metal oxide on the surface of the composite particle, a major dimension that is approximately less than or equal to 40 microns and a formula of MM?Z, wherein M is from the group of Si and Sn, M? is from a group of Mn, Mg, Al, Mo, Bronze, Be, Ti, Cu, Ce, Li, Fe, Ni, Zn, Co, Zr, K, and Na, and Z is from the group of O, Cl, P, C, S, H, and F.

Abstract: A hybrid system for optimizing energy supplied from energy sources to load device is described. The hybrid system includes a memory, a power and energy module, and a processor coupled to the memory. The power and energy module determines power and energy needed by the load device. The processor executes instructions stored in the memory to receive information associated with the determined power and energy from the power and energy module, and optimizes the energy generated by the energy sources for supplying to the a load device by selecting at least one energy source of the energy sources based on the received information and selection priority of the energy sources.

Abstract: The specification relates to a composite particle for storing lithium. The composite particle is used in an electrochemical cell. The composite particle includes a metal oxide on the surface of the composite particle, a major dimension that is approximately less than or equal to 40 microns and a formula of MM?Z, wherein M is from the group of Si and Sn, M? is from a group of Mn, Mg, Al, Mo, Bronze, Be, Ti, Cu, Ce, Li, Fe, Ni, Zn, Co, Zr, K, and Na, and Z is from the group of O, Cl, P, C, S, H, and F.

Abstract: The specification relates to a composite particle for storing lithium. The composite particle is used in an electrochemical cell. The composite particle includes a metal oxide on the surface of the composite particle, a major dimension that is approximately less than or equal to 40 microns and a formula of MM?Z, wherein M is from the group of Si and Sn, M? is from a group of Mn, Mg, Al, Mo, Bronze, Be, Ti, Cu, Ce, Li, Fe, Ni, Zn, Co. Zr, K, and Na, and Z is from the group of O, Cl, P, C, S, H, and F.

Abstract: The specification relates to a composite particle for storing lithium. The composite particle is used in an electrochemical cell. The composite particle includes a metal oxide on the surface of the composite particle, a major dimension that is approximately less than or equal to 40 microns and a formula of MM?Z, wherein M is from the group of Si and Sn, M? is from a group of Mn, Mg, Al, Mo, Bronze, Be, Ti, Cu, Ce, Li, Fe, Ni, Zn, Co, Zr, K, and Na, and Z is from the group of O, Cl, P, C, S, H, and F.

Abstract: Disclosed is a communication system, a method and a device for real time management, data analysis and geographic location of business deals. In one implementation, a system (100) for enabling a communication between at least two users (102) using said system (100), and a communication between at least one user and at least one payment processing server (110), using a specialized electronic card reader device (106) is disclosed. The system (100), a method (300), and the device (106) enabling team management, inventory management, payment processing and waste management tools to allow business owners, managers, employee and consumers to communicate within themselves and to the payment processing servers using single platform configured to allow business deals driven by real time management, data analysis and geographic location is disclosed. Further, the device (106) may be used for reading cards and the like and enabling multiple users to communicate with each other.

Abstract: A bio-mineralized composition for use in an electrochemical cell is described. The bio-mineralized composition may comprise a material represented by general formula y[Li1±xMaPOc).(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Li1±xMaOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz or y[Ma].(1-y)[Mb(POc)3±d(Ap)1=e].Cz or y[Li1±xMaSiaOc].(1-y)[Mb(POc)3=d(Ap)1±e].Cz, or y[Li1±xMaOc].w[Li2±xMaOc].(1-y-w)[Mb(POc)3±d(Ap)1±e].Cz, or y[Li1±xMaBOc].(1-y)[Mb(POc)3±d(Ap)1±e].Cz, or y[MaOx].(1-y)[Mb(POc)3±d(Ap)1±e].Cz where M represents at least one element; Ap represents group of mixtures; C represents Carbon or its allotropes; P represents element phosphorous; Si represents silicon; Li represents lithium; B represents boron; O represents oxygen and x, y, z, w, a, b, c, d and e represent a number.

Abstract: The specification relates to a composite particle for storing lithium. The composite particle is used in an electrochemical cell. The composite particle includes a metal oxide on the surface of the composite particle, a major dimension that is approximately less than or equal to 40 microns and a formula of MM?Z, wherein M is from the group of Si and Sn, M? is from a group of Mn, Mg, Al, Mo, Bronze, Be, Ti, Cu, Ce, Li, Fe, Ni, Zn, Co, Zr, K, and Na, and Z is from the group of O, Cl, P, C, S, H, and F.