Abstract: A solid conductor including: a compound represented by Formula 1, a compound represented by Formula 2, or a combination thereof Li1+x+y-zTa2-xMxP1-yQyO8-zXz??Formula 1 wherein, in Formula 1, M is an element having an oxidation number of +4, Q is an element having an oxidation number of +4, X is a halogen, a pseudohalogen, or a combination thereof, and 0?x?2, 0?y<1, and 0?z?2, except that cases i) x and y and z are simultaneously 0, ii) M is Hf, X is F, x is 1, y is 0, and z is 1, iii) M is Hf, X is Cl, x is 2, y is 0, and z is 2, and iv) M is Hf, X is F, x is 2, y is 0, and z is 2, Li1+x+y-zTa2-xMxP1-yQyO8·zLiX??Formula 2 wherein, in Formula 2, M is an element having an oxidation number of +4, Q is an element having an oxidation number of +4, X is a halogen, a pseudohalogen, or a combination thereof, and 0?x?2, 0?y<1, and 0?z?2, except that cases i) x and y and z are simultaneously 0, ii) M is Hf, X is F, x is 1, y is 0, and z is 1, iii) M is Hf, X is Cl, x is 2, y is 0, and z

Abstract: A solid conductor including: a compound represented by Formula 1, a compound represented by Formula 2, or a combination thereof Li1+x+y?zTa2?xMxP1?yQyO8?zXz??Formula 1 wherein, in Formula 1, M is an element having an oxidation number of +4, Q is an element having an oxidation number of +4, X is a halogen, a pseudohalogen, or a combination thereof, and 0?x?2, 0?y<1, and 0?z?2, except that cases i) x and y and z are simultaneously 0, ii) M is Hf, X is F, x is 1, y is 0, and z is 1, iii) M is Hf, X is Cl, x is 2, y is 0, and z is 2, and iv) M is Hf, X is F, x is 2, y is 0, and z is 2, Li1+x+y?zTa2?xMxP1?yQyO8·zLiX??Formula 2 wherein, in Formula 2, M is an element having an oxidation number of +4, Q is an element having an oxidation number of +4, X is a halogen, a pseudohalogen, or a combination thereof, and 0?x?2, 0?y<1, and 0?z2, except that cases i) x and y and z are simultaneously 0, ii) M is Hf, X is F, x is 1, y is 0, and z is 1, iii) M is Hf, X is Cl, x is 2, y is 0, and z is 2, and iv)

Abstract: A compound of Formula 1 Li1+(4?a)?Hf2??Ma?(PO4??)3??(1) is disclosed, wherein M is at least one cationic element having a valence of a, wherein 0<???, 1?a?4, and 0???0.1. Also described are an electrolyte composition, a separator, a protected positive electrode, a protected negative electrode, and a lithium battery, each including the compound of Formula 1.

Abstract: A compound of Formula 1 Li1+(4?a)?Hf2??Ma?(PO4??)3??(1) is disclosed, wherein M is at least one cationic element having a valence of a, wherein 0<???, 1?a?4, and 0???0.1. Also described are an electrolyte composition, a separator, a protected positive electrode, a protected negative electrode, and a lithium battery, each including the compound of Formula 1.

Abstract: Compounds, composites including compounds, and devices including the compounds. The compounds may be electrolytes used in devices, such as solid-state batteries. Methods for preparing compounds and composites. The methods may be performed in mild conditions, such as at room temperature.

Abstract: Electrolytes, methods of preparing electrolytes, and batteries include electrolytes. Electrolytes may include a material of formula (I), Li3PS4-xOx, wherein x is 0<x?1. The electrolytes may be glass-ceramic electrolytes. Batteries including electrolytes may be lithium-ion batteries.

Abstract: A compound of Formula 1: Li1+2x?yZn1?xPS4?y??Ay??(1) wherein A is halogen, 0?x?1, 0?y?0.5, and 0???0.5, and wherein the compound of Formula 1 has an body centered cubic crystal structure. Also a lithium battery and an electrode including the compound.

Abstract: Solid electrolytes, including lithium-argyrodite solid electrolytes, and electronic devices, such as lithium-ion batteries that include the solid electrolytes. Methods of making solid electrolytes, including methods for making solid electrolytes with varying degrees of lithium deficiency.

Abstract: A solid conductor including: a compound represented by Formula 1, a compound represented by Formula 2, or a combination thereof Li1+x+y?zTa2-xMxP1-yQyO8-zXz ??Formula 1 wherein, in Formula 1, M is an element having an oxidation number of +4, Q is an element having an oxidation number of +4, X is a halogen, a pseudohalogen, or a combination thereof, and 0?x?2, 0?y<1, and 0?z?2, except that cases i) x and y and z are simultaneously 0, ii) M is Hf, X is F, x is 1 , y is 0, and z is 1, iii) M is Hf, X is Cl, x is 2, y is 0, and z is 2, and iv) M is Hf, X is F, x is 2, y is 0, and z is 2, Li1+x+y?zTa2-xMxP1-yQyO8-zLiX ??Formula 2 wherein, in Formula 2, M is an element having an oxidation number of +4, Q is an element having an oxidation number of +4, X is a halogen, a pseudohalogen, or a combination thereof, and 0)(2, 0y<1, and 0z2, except that cases i) x and y and z are simultaneously 0, ii) M is Hf, X is F, x is 1 , y is 0, and z is 1, iii) M is Hf, X is Cl, x is 2, y is 0, and z is

Abstract: A compound of Formula 1: Li1+2x?yZn1?xPS4?y??Ay??(1) wherein A is halogen, 0?x?1, 0?y?0.5, and 0???0.5, and wherein the compound of Formula 1 has an body centered cubic crystal structure. Also a lithium battery and an electrode including the compound.

Abstract: A compound of Formula 1 Li1+(4?a)?Hf2??Ma?(PO4??)3??(1) wherein M is at least one cationic element with valence of a, wherein 0<???, 1?a?4, and 0???0.1. Also an electrolyte composition, a separator, a protected positive electrode, a protected negative electrode, and a lithium battery, each including the compound of Formula 1.

Abstract: A method and system for deploying a cluster, wherein the cluster contains a plurality of cluster members, the method comprising: obtaining a unique identifier for each cluster member; according to the unique identifier of each cluster member, obtaining cluster configuration information for the cluster member; configuring the cluster member using the obtained cluster configuration information of the cluster member; and deploying the cluster. The method and system can enhance the cluster deployment efficiency.

Abstract: A method and system for deploying a cluster, wherein the cluster contains a plurality of cluster members, the method comprising: obtaining a unique identifier for each cluster member; according to the unique identifier of each cluster member, obtaining cluster configuration information for the cluster member; configuring the cluster member using the obtained cluster configuration information of the cluster member; and deploying the cluster. The method and system can enhance the cluster deployment efficiency.

Abstract: Traffic information processing method and apparatus. The method includes the steps of: obtaining road traffic data of a plurality of road sections; predicting for at least two road sections of the plurality of road sections, based on the obtained data, traffic flow information at an expected time when arriving at the road section from a current position, the traffic flow information being used for describing a traffic state of a road; displaying via a display apparatus the predicted traffic flow information of at least two road sections in the at least two road sections. In addition, the present invention provides a traffic information processing apparatus, a GPS navigation device, and a variable message board. By applying the technical solution provided in the present invention, the road traffic condition can be effectively transferred to users so that it is convenient for the users to plan routes for their travel.