mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for planning a restorative dental treatment for a patient, wherein at least two dental restorations are digitally constructed and a specification for the insertion of the restorations into the mouth of the patient is calculated, wherein the specification for the insertion of the restorations comprises an order of the restorations to be inserted, if applicable including insertion paths for the restorations to be inserted, characterized in that the method comprises the following steps: a. calculation of geometries for the restorations , b. identification of potential conflicts for possible insertion sequences and, if applicable, insertion paths , and c. output of an available optimum specification for the insertion of the restorations, wherein the optimum specification allows an insertion of the restorations without conflicts, or repetition of steps a. - c., if no optimum specification is possible. a. calculation of geometries for the restorations , b. identification of potential conflicts for possible insertion sequences and, if applicable, insertion paths , and c. output of an available optimum specification for the insertion of the restorations, wherein the optimum specification allows an insertion of the restorations without conflicts, or repetition of steps a. - c., if no optimum specification is possible.
A method of performing sidelink communication in a wireless communication system, the method performed by a first user equipment, UE, comprising: receiving, from a base station , resource pool allocation information indicating at least one resource pool among a plurality of pre-configured resource pools, wherein the at least one resource pool is allocated for a specific UE group to which the first UE and a second UE belong, identifying a specific sidelink resource for the second UE in the at least one resource pool, and transmitting, to the second UE , a signal for allocating the identified specific sidelink resource, wherein the specific sidelink resource is allocated for a signal for performing sidelink measurement between UEs that belong to the specific UE group, wherein the UEs that belong to the specific UE group include i) a leading UE allocating sidelink resources to other UEs within the specific UE group and ii) one or more following UEs other than the leading UE, wherein the first UE is the leading UE and the second UE is one of the one or more following UEs, wherein the signal for performing the sidelink measurement is transmitted from each of the UEs that belong to the specific UE group to remaining UEs that belong to the specific UE group, wherein the signal for performing the sidelink measurement comprises a counter indicating a valid period of the corresponding signal, and wherein information for a resource pool to be reselected among the plurality of pre-configured resource pools is transmitted from the leading UE to the one or more following UEs before the counter expires. receiving, from a base station , resource pool allocation information indicating at least one resource pool among a plurality of pre-configured resource pools, wherein the at least one resource pool is allocated for a specific UE group to which the first UE and a second UE belong, identifying a specific sidelink resource for the second UE in the at least one resource pool, and transmitting, to the second UE , a signal for allocating the identified specific sidelink resource, wherein the specific sidelink resource is allocated for a signal for performing sidelink measurement between UEs that belong to the specific UE group, wherein the UEs that belong to the specific UE group include i) a leading UE allocating sidelink resources to other UEs within the specific UE group and ii) one or more following UEs other than the leading UE, wherein the first UE is the leading UE and the second UE is one of the one or more following UEs, wherein the signal for performing the sidelink measurement is transmitted from each of the UEs that belong to the specific UE group to remaining UEs that belong to the specific UE group, wherein the signal for performing the sidelink measurement comprises a counter indicating a valid period of the corresponding signal, and wherein information for a resource pool to be reselected among the plurality of pre-configured resource pools is transmitted from the leading UE to the one or more following UEs before the counter expires.
A spinal implant comprising: an interbody implant in form of a corpectomy cage (12; 1312) defining a longitudinal axis (A1), and an interbody endcap (22; 1322) comprising: a wall (66; 1366) having a first surface (74; 1374) connected to the interbody implant (12; 1312) and a second surface (72; 1372) including an arcuate portion configured for engagement with a vertebral endplate surface (E1), wherein the second surface (72; 1372) extends between a first end and a second end such that the arcuate portion is disposed between the ends , and wherein the ends each include a substantially planar configuration oriented transverse to the longitudinal axis (A1), and wherein the second surface (72; 1372) extends outwardly from the interbody implant (12; 1312) to at least adjacent a perimeter of the vertebral endplate surface (E1). an interbody implant in form of a corpectomy cage (12; 1312) defining a longitudinal axis (A1), and an interbody endcap (22; 1322) comprising: a wall (66; 1366) having a first surface (74; 1374) connected to the interbody implant (12; 1312) and a second surface (72; 1372) including an arcuate portion configured for engagement with a vertebral endplate surface (E1), wherein the second surface (72; 1372) extends between a first end and a second end such that the arcuate portion is disposed between the ends , and wherein the ends each include a substantially planar configuration oriented transverse to the longitudinal axis (A1), and wherein the second surface (72; 1372) extends outwardly from the interbody implant (12; 1312) to at least adjacent a perimeter of the vertebral endplate surface (E1).
An electrical connector for receiving at least one electrical conductor , the connector comprising a bus bar and at least one clamp , wherein the at least one clamp comprises a spring arm moveable relative to the bus bar ; the spring arm cooperates with the bus bar to secure an electrical conductor to the bus bar when the spring arm is in a connecting position; and the at least one clamp is directly mounted to the bus bar , characterized in that the bus bar is caught and clamped in at least one mounting section that is an integral cage portion of the at least one clamp which is configured to receive the bus bar, the at least one cage portion is formed by a support arm and a locking arm , wherein the bus bar extends between the support arm and the locking arm , and the at least one clamp is latched to the bus bar by means of a snap-fit connection. the at least one clamp comprises a spring arm moveable relative to the bus bar ; the spring arm cooperates with the bus bar to secure an electrical conductor to the bus bar when the spring arm is in a connecting position; and the at least one clamp is directly mounted to the bus bar ,
Method for producing a rotor of a wind turbine generator of a wind turbine comprising the steps of: - providing a rotor base member with a plurality of pole shoes , - arranging a coil in each case at least at two adjacent pole shoes in order to obtain at least two adjacent coils , - feeding a current into or applying a voltage to the adjacent coils in order to generate a current in the adjacent coils in order to heat the coils, characterised in that a current is generated in the adjacent coils so that the circulation direction is identical to a technical flow direction in each of the adjacent coils . - providing a rotor base member with a plurality of pole shoes , - arranging a coil in each case at least at two adjacent pole shoes in order to obtain at least two adjacent coils , - feeding a current into or applying a voltage to the adjacent coils in order to generate a current in the adjacent coils in order to heat the coils, characterised in that
A cold fusion concrete formulation that can be trowel applied, or poured into place, that is resistant to acids, sulfates, chlorides, and heat exposure up to 649 degrees Celsius (1,200 degrees Fahrenheit) comprising: a reagent resistant mineral aggregate in an amount from about 20%, wt/wt, to about 75%, wt/wt, of the total weight of said formulation, including water; a pollinated fern oil in an amount from about 0.055%, wt/wt, to about 1.0% (wt/wt) of the total weight of said formulation, including water; a cementitious material in an amount from about 8.0%, wt/wt, to about 40.0%, wt/wt, of the total weight of said formulation, inclusive of water, including at least one member selected from Class C fly ash, Class F fly ash, and granulated ground blast furnace slag (GGBFS); wherein said cementitious material includes at least one member selected from sodium tetraborate, sodium citrate dihydrate, citric acid, boric acid, and silicic acid, in concentrations ranging from about 0.5%, wt/wt, to about 5.0%, wt/wt, by mass of the mixture including water; wherein said cementitious material includes at least one member selected from sodium metasilicate, potassium metasilicate, sodium pentahydrate, and potassium pentahydrate, at mass concentrations ranging from about 2%, wt/wt, to about 7%, wt/wt; a protein, in concentrations ranging from about .01%, wt/wt, to about 0.1%, wt/wt, of said cementitious material; and water in mass amounts ranging from about 3%, wt/wt, to about 15%, wt/wt. a reagent resistant mineral aggregate in an amount from about 20%, wt/wt, to about 75%, wt/wt, of the total weight of said formulation, including water; a pollinated fern oil in an amount from about 0.055%, wt/wt, to about 1.0% (wt/wt) of the total weight of said formulation, including water; a cementitious material in an amount from about 8.0%, wt/wt, to about 40.0%, wt/wt, of the total weight of said formulation, inclusive of water, including at least one member selected from Class C fly ash, Class F fly ash, and granulated ground blast furnace slag (GGBFS); wherein said cementitious material includes at least one member selected from sodium tetraborate, sodium citrate dihydrate, citric acid, boric acid, and silicic acid, in concentrations ranging from about 0.5%, wt/wt, to about 5.0%, wt/wt, by mass of the mixture including water; wherein said cementitious material includes at least one member selected from sodium metasilicate, potassium metasilicate, sodium pentahydrate, and potassium pentahydrate, at mass concentrations ranging from about 2%, wt/wt, to about 7%, wt/wt; a protein, in concentrations ranging from about .01%, wt/wt, to about 0.1%, wt/wt, of said cementitious material; and water in mass amounts ranging from about 3%, wt/wt, to about 15%, wt/wt.
Probe head comprising - an assembly having a light source (1.1) and a photodetector (1.2), and - a deflection element comprising a carrier body (2.1), to which a lens (2.2) is attached, wherein the carrier body (2.1) is supported on the assembly in a manner such that, upon contact with the deflection element , a movement of the deflection element in relation to the assembly is enabled, characterized in that the lens (2.2) is located in a housing (H), which is delimited by a wall (2.11), while the light source (1.1) and the photodetector (1.2) are arranged outside the housing (H), wherein the wall (2.11) of the housing (H) is designed such that it is hermetically sealed and transparent at least in part, with the result that the wall (2.11) is transmissive for a light beam emitted by the light source (1.1) and passes through the lens (2.2) to the photodetector (1.2). - an assembly having a light source (1.1) and a photodetector (1.2), and - a deflection element comprising a carrier body (2.1), to which a lens (2.2) is attached, wherein the lens (2.2) is located in a housing (H), which is delimited by a wall (2.11), while the light source (1.1) and the photodetector (1.2) are arranged outside the housing (H), wherein the wall (2.11) of the housing (H) is designed such that it is hermetically sealed and transparent at least in part, with the result that the wall (2.11) is transmissive for a light beam emitted by the light source (1.1) and passes through the lens (2.2) to the photodetector (1.2).
An aluminum aminotrimethylenephosphonate, having a structure shown as the formula (I): wherein: the aluminum aminotrimethylenephosphonate has a particle size (D50) of 5 μm - 100 pm, the aluminum aminotrimethylenephosphonate has a bulk density of 0.4 g/cm 3 - 0.9 g/cm 3 , and the aluminum aminotrimethylenephosphonate has an angle of repose of 25° - 45. the aluminum aminotrimethylenephosphonate has a particle size (D50) of 5 μm - 100 pm, the aluminum aminotrimethylenephosphonate has a bulk density of 0.4 g/cm 3 - 0.9 g/cm 3 , and the aluminum aminotrimethylenephosphonate has an angle of repose of 25° - 45.
A compound, which is selected from the following structures: and a solvate, or a pharmaceutically acceptable salt thereof.
A communication apparatus comprising: circuitry configured to generate an Extremely High Throughput Physical layer Protocol Data Unit, EHT PPDU, comprising a Universal Signal, U-SIG, field and an EHT Signal, EHT-SIG, field , wherein the U-SIG field comprises punctured channel information, and the EHT-SIG field comprises supplemental punctured channel information; and a transmitter configured to transmit the EHT PPDU, characterized in that when the EHT PPDU is used for punctured single-user, SU, or multi-user, MU, multiple input multiple output, MIMO, transmission and the punctured channel information is able to indicate a channel puncturing pattern that is applied to the EHT PPDU, the EHT-SIG field does not comprise the supplemental punctured channel information. circuitry configured to generate an Extremely High Throughput Physical layer Protocol Data Unit, EHT PPDU, comprising a Universal Signal, U-SIG, field and an EHT Signal, EHT-SIG, field , wherein the U-SIG field comprises punctured channel information, and the EHT-SIG field comprises supplemental punctured channel information; and a transmitter configured to transmit the EHT PPDU, characterized in that when the EHT PPDU is used for punctured single-user, SU, or multi-user, MU, multiple input multiple output, MIMO, transmission and the punctured channel information is able to indicate a channel puncturing pattern that is applied to the EHT PPDU, the EHT-SIG field does not comprise the supplemental punctured channel information.
A meter reading device comprising: - a first communication interface for wireless communication with a utility meter ; - a second communication interface for wireless communication with a mobile phone ; - a microcontroller for controlling the communication interfaces and for processing data packets ; and - a key extraction module , the meter reading device being configured to: receive from the utility meter via the first communication interface , a data packet comprising a payload being at least partly encrypted by use of a data encryption key ; and receive from the mobile phone via the second communication interface an access code comprising the data encryption key embedded in the access code, and extract from the access code the data encryption key by inputting the access code to the key extraction module ; and decrypt the payload of the received data packet using the data encryption key extracted from the access code; and establish an encrypted connection to the mobile phone via the second communication interface and send at least a part of the decrypted payload to the mobile phone via the encrypted connection and send the received data packet including the encrypted payload to the mobile phone via the second communication interface . - a first communication interface for wireless communication with a utility meter ; - a second communication interface for wireless communication with a mobile phone ; - a microcontroller for controlling the communication interfaces and for processing data packets ; and - a key extraction module ,
Activated stem cells for use in a method of treatment of congestive heart failure, Parkinson's disease, multiple sclerosis, spinal cord injury, cerebral palsy, amyotrophic lateral sclerosis, or knee injuries by repairing damaged biological tissue, the method comprising administering the activated stem cells into a body containing the damaged biological tissue to be repaired, wherein the activated stem cells are obtained by: obtaining unactivated stem cells, wherein the unactivated stem cells are mesenchymal stem cells and/or hematopoietic stem cells; forming activated stem cells from the unactivated stem cells by treating the unactivated stem cells with an amplitude modulated laser beam having a pre-defined wavelength and a pre-defined amplitude, wherein the activated stem cells have an increased cell surface expression of alpha 4, beta 1 and beta 2 integrins and/or an increase in expression of CD34 relative to the unactivated stem cells. obtaining unactivated stem cells, wherein the unactivated stem cells are mesenchymal stem cells and/or hematopoietic stem cells; forming activated stem cells from the unactivated stem cells by treating the unactivated stem cells with an amplitude modulated laser beam having a pre-defined wavelength and a pre-defined amplitude, wherein the activated stem cells have an increased cell surface expression of alpha 4, beta 1 and beta 2 integrins and/or an increase in expression of CD34 relative to the unactivated stem cells.
A computer-implemented method comprising: providing instructions to a user to perform an athletic movement; monitoring with at least a first sensor the user performing the athletic movement; generating a virtual avatar of the user during the user's performance of the athletic movement; displaying on a display device the virtual avatar overlaid relative to a virtual shadow of variable size, wherein the virtual shadow illustrates a proper form of the athletic movement; determining, by a processor, an amount of overlap between the virtual avatar and the virtual shadow; generating a feedback score based on, at least in part, the amount of overlap; and reducing, based on the amount of overlap being above a threshold value, the size of the virtual shadow until it substantially conforms to a size of the virtual avatar. providing instructions to a user to perform an athletic movement; monitoring with at least a first sensor the user performing the athletic movement; generating a virtual avatar of the user during the user's performance of the athletic movement; displaying on a display device the virtual avatar overlaid relative to a virtual shadow of variable size, wherein the virtual shadow illustrates a proper form of the athletic movement; determining, by a processor, an amount of overlap between the virtual avatar and the virtual shadow; generating a feedback score based on, at least in part, the amount of overlap; and reducing, based on the amount of overlap being above a threshold value, the size of the virtual shadow until it substantially conforms to a size of the virtual avatar.
An improved gear pump or motor comprising a shaft gear and a driven gear meshed rotatably within a gear chamber formed with a housing and opposite side walls, which delivers fluids from an inlet chamber to an outlet chamber , a backlash of the said meshed gears having fluid-leak-tight clearance; a closed chamber provided in an internal portion of at least a said side wall; an opening provided on said side wall from which a communication passage extends to said closed chamber; characterised by at least an elastic disc capsule contained in the said closed chamber , comprising a pair of concave elastic disc plates abutted and sealed against each other with gas inside, of which occupying volume varies elastically subject to the fluid pressure therein enabling to absorb or expel the squeezed fluid in the trapped interstice during the trapping period of the interstice, whereby the fluid entrapped in the said interstice isolated by the fluid-leak-tight backlash suppressing the pressure transmission inwardly or outwardly, whereof volumetric variation during the trapping period is compensated by the compression or expansion of the said elastic disc capsule , suppressing pressure pulse and air bubble generation and eliminating the teeth bouncing contact.
A chair comprising: swinging surfaces facing each other, the swinging surfaces swinging with respect to each other in a direction of 360 degrees including front-rear and left-right directions, wherein an elastic member is arranged between the swinging surfaces at least in a vicinity of outer peripheral edges of the swinging surfaces , and a stretchable sheet material is provided between the outer peripheral edges to conceal a gap between the swinging surfaces facing each other, the gap including the elastic member ; characterized in that grooves that extend along the outer peripheral edges of the swinging surfaces facing each other and open in opposite directions are provided in the vicinity of the outer peripheral edges of the swinging surfaces , a cover member is formed by attaching deformable strips to edge portions of the stretchable sheet material , and the strips are pushed into the grooves to conceal the gap between the swinging surfaces facing each other by the cover member . swinging surfaces facing each other, the swinging surfaces swinging with respect to each other in a direction of 360 degrees including front-rear and left-right directions, wherein an elastic member is arranged between the swinging surfaces at least in a vicinity of outer peripheral edges of the swinging surfaces , and a stretchable sheet material is provided between the outer peripheral edges to conceal a gap between the swinging surfaces facing each other, the gap including the elastic member ;