mhurhangee/patent-ind-claim-en huggingface dataset:
A match making method in an electronic dart game device including a communication function with an external device, the method comprising: receiving, by a player input unit , a match making request that was input by a player; receiving, by a controller (190;405), information associated with an opposing player selected by a match making algorithm, wherein the controller (190;405) selects the opposing player which is in the same place among players associated with one or more other grouped electronic dart game devices based on electronic dart game device unique identification information and electronic dart game device positional information, and wherein the controller (190;405) selects the electronic dart game device for playing the game together with the selected opposing player at the same place based on the electronic dart game device unique identification information and the electronic dart game device positional information; outputting, by an output unit , information associated with the electronic dart game device which the player and the opposing player are to play, and signaling, by a network connection unit , to drive a selected electronic dart game device which the player and the opposing player are to play when a match approval input is received from the player and/or the opposing player, to allow the player and the opposing player to perform a play. receiving, by a player input unit , a match making request that was input by a player; receiving, by a controller (190;405), information associated with an opposing player selected by a match making algorithm, wherein the controller (190;405) selects the opposing player which is in the same place among players associated with one or more other grouped electronic dart game devices based on electronic dart game device unique identification information and electronic dart game device positional information, and wherein the controller (190;405) selects the electronic dart game device for playing the game together with the selected opposing player at the same place based on the electronic dart game device unique identification information and the electronic dart game device positional information; outputting, by an output unit , information associated with the electronic dart game device which the player and the opposing player are to play, and signaling, by a network connection unit , to drive a selected electronic dart game device which the player and the opposing player are to play when a match approval input is received from the player and/or the opposing player, to allow the player and the opposing player to perform a play.
A sensor device comprising: a fitting member independent from a hitting tool ; a base member configured to be mounted on a hitting tool via the fitting member ; a substrate joined to the base member ; a sensor disposed on the substrate and configured to detect a motion of the hitting tool delivered via the base member and the substrate ; a communication unit configured to transmit a detection result of the motion of the hitting tool to an external device; an exterior member configured to cover the sensor and the communication unit , wherein the fitting member has a shape which is able to fit into a grip end of the hitting tool and corresponds to a shape of a fitting portion of the hitting tool , wherein the base member is detachably mounted on the fitting member , wherein the base member further includes a lock mechanism that locks a positional relation between the base member and the fitting member when the base member is mounted on the fitting member ; an arm portion configured to be rotatable with respect to a portion facing the base member ; a claw formed in the arm portion and configured to engage with an inside portion of the grip end when the arm portion is rotated in a first direction; and a protrusion formed in the arm portion and configured to come into contact with the base member when the base member is mounted on the fitting member , to rotate the arm portion in the first direction. a fitting member independent from a hitting tool ; a base member configured to be mounted on a hitting tool via the fitting member ; a substrate joined to the base member ; a sensor disposed on the substrate and configured to detect a motion of the hitting tool delivered via the base member and the substrate ; a communication unit configured to transmit a detection result of the motion of the hitting tool to an external device; an exterior member configured to cover the sensor and the communication unit , wherein the fitting member has a shape which is able to fit into a grip end of the hitting tool and corresponds to a shape of a fitting portion of the hitting tool , wherein the base member is detachably mounted on the fitting member , wherein the base member further includes a lock mechanism that locks a positional relation between the base member and the fitting member when the base member is mounted on the fitting member ; an arm portion configured to be rotatable with respect to a portion facing the base member ; a claw formed in the arm portion and configured to engage with an inside portion of the grip end when the arm portion is rotated in a first direction; and a protrusion formed in the arm portion and configured to come into contact with the base member when the base member is mounted on the fitting member , to rotate the arm portion in the first direction.
A micro-needle comprising: a biocompatible matrix having a micro-needle-like shape and comprising a first material configured to swell or to be dissolved in a living tissue; porous particles (20P1, 20P2) provided at at least a portion of a surface or the interior of the biocompatible matrix , wherein the porous particles have a particle body having a plurality of pores therein, wherein the particle body comprises a second material different from the first material, wherein the porous particles function as drug carriers containing pharmaceutically, medically, or cosmetically effective substance for delivering the pharmaceutically, medically, or cosmetically effective substance to the living tissue, wherein the effective substance is trapped in the plurality of pores of the porous particles, and wherein the plurality of pores of the porous particles comprise open or closed pores, and at least one of porosity, size and opening of the open or closed pores is adjusted to control a speed of releasing the effective substance in the living tissue. a biocompatible matrix having a micro-needle-like shape and comprising a first material configured to swell or to be dissolved in a living tissue; porous particles (20P1, 20P2) provided at at least a portion of a surface or the interior of the biocompatible matrix , wherein the porous particles have a particle body having a plurality of pores therein, wherein the particle body comprises a second material different from the first material, wherein the porous particles function as drug carriers containing pharmaceutically, medically, or cosmetically effective substance for delivering the pharmaceutically, medically, or cosmetically effective substance to the living tissue, wherein the effective substance is trapped in the plurality of pores of the porous particles, and wherein the plurality of pores of the porous particles comprise open or closed pores, and at least one of porosity, size and opening of the open or closed pores is adjusted to control a speed of releasing the effective substance in the living tissue.
A system to control movement of a capsule endoscope in a target area, capable to precisely generate a 5-dimensional moving and rotational magnetic field, to remotely apply force to a magnetic capsule endoscope , comprising the capsule endoscope , comprised of a capsule-shaped housing and an imaging unit that is arranged inside the capsule-shaped housing in a fixed manner, configured to take an image of the target area by the imaging unit in a state where the capsule endoscope is suspended at a liquid/gas interface, wherein the capsule has a density greater than the density of the liquid; said system comprising a sphere shaped external robotic magnet configured to generate an external magnetic field, said system being configured to perform the steps of: applying an external magnetic field for changing the tilt angle of the capsule endoscope while being suspended at the liquid/gas interface by rotating and moving the sphere shaped external magnet along one or more axial directions and interacting with the permanent magnetic dipole inside the capsule endoscope , wherein the capsule endoscope forms a tilt angle at a liquid/gas interface to observe the target area; characterized in that the system is configured to rotate the external magnet and move the external magnet in the XY plane to offset the movement of the capsule endoscope in the horizontal direction, to keep the capsule endoscope in the same position at the liquid / gas interface, wherein the translation movement on the XY plane of the external magnet is calculated by: X = X 0 + tsin α Y = Y 0 + tcos α X 0 and Y 0 are the original positions of the external magnet; X and Y are the final positions of the external magnets; α is the horizontal rotation angle of the external magnet; t is the offset distance that the capsule endoscope moves horizontally when the tilt angle of the capsule endoscope is changed by the rotation of the external magnet. applying an external magnetic field for changing the tilt angle of the capsule endoscope while being suspended at the liquid/gas interface by rotating and moving the sphere shaped external magnet along one or more axial directions and interacting with the permanent magnetic dipole inside the capsule endoscope , wherein the capsule endoscope forms a tilt angle at a liquid/gas interface to observe the target area; characterized in that the system is configured to rotate the external magnet and move the external magnet in the XY plane to offset the movement of the capsule endoscope in the horizontal direction, to keep the capsule endoscope in the same position at the liquid / gas interface, wherein the translation movement on the XY plane of the external magnet is calculated by: X = X 0 + tsin α Y = Y 0 + tcos α X 0 and Y 0 are the original positions of the external magnet; X and Y are the final positions of the external magnets; α is the horizontal rotation angle of the external magnet; t is the offset distance that the capsule endoscope moves horizontally when the tilt angle of the capsule endoscope is changed by the rotation of the external magnet.
Method for performing tests on an internal combustion engine or a structure which is associated with the engine by measuring output parameter values on at least one output shaft (3 LF , 3 RF ) which is connected to the engine, including - producing a representation of variations in said output parameter values during operation of the engine, - said representation of variations in said output parameter values during operation of the engine being produced during one engine cycle, - evaluating the representation for determining an operating parameter value for the engine or the structure, wherein the said test is performed by measuring the said output parameter values after a transmission, characterized in - the measuring of the output parameter values after the transmission being a measuring of the output parameter values on at least one wheel shaft of a vehicle wherein the operating parameter value is a total transmission ratio value for the vehicle, wherein the representation of variations is frequency analyzed and a frequency peak value is created, the frequency peak value being correlated to a rotation speed of the at least one wheel shaft for creating the total transmission ratio value. - producing a representation of variations in said output parameter values during operation of the engine, - said representation of variations in said output parameter values during operation of the engine being produced during one engine cycle, - evaluating the representation for determining an operating parameter value for the engine or the structure, wherein the said test is performed by measuring the said output parameter values after a transmission, characterized in - the measuring of the output parameter values after the transmission being a measuring of the output parameter values on at least one wheel shaft of a vehicle wherein the operating parameter value is a total transmission ratio value for the vehicle, wherein the representation of variations is frequency analyzed and a frequency peak value is created, the frequency peak value being correlated to a rotation speed of the at least one wheel shaft for creating the total transmission ratio value.
An apparatus, comprising: a secure circuit configured to: store a plurality of keys usable to encrypt data communications between a plurality of devices over a network; store information that defines a set of usage criteria for the plurality of keys, wherein the set of usage criteria specifies that a first of the plurality of keys is dedicated to encrypting data being communicated from a first of the plurality of devices to a second of the plurality of devices; receive, from the first device, a particular request to encrypt a portion of a message with the first key, wherein the particular request indicates that the message is being sent from the first device to the second device; determine that the set of usage criteria authorizes use of the first key for encrypting data to be sent to the second device; in response to a determination that the use is authorized, encrypt the portion of the message with the first key; receive, from the first device, a different request to encrypt a portion of a different message with the first key, wherein the different request indicates that the different message is being sent from the first device to a third device; determine that the set of usage criteria does not authorize use of the first key for encrypting data to be sent to the third device; and in response to a determination that the use is not authorized, send a response indicating that the different request has been denied. store a plurality of keys usable to encrypt data communications between a plurality of devices over a network; store information that defines a set of usage criteria for the plurality of keys, wherein the set of usage criteria specifies that a first of the plurality of keys is dedicated to encrypting data being communicated from a first of the plurality of devices to a second of the plurality of devices; receive, from the first device, a particular request to encrypt a portion of a message with the first key, wherein the particular request indicates that the message is being sent from the first device to the second device; determine that the set of usage criteria authorizes use of the first key for encrypting data to be sent to the second device; in response to a determination that the use is authorized, encrypt the portion of the message with the first key; receive, from the first device, a different request to encrypt a portion of a different message with the first key, wherein the different request indicates that the different message is being sent from the first device to a third device; determine that the set of usage criteria does not authorize use of the first key for encrypting data to be sent to the third device; and in response to a determination that the use is not authorized, send a response indicating that the different request has been denied.
Conveying pipe for the transport of solids, having a double-walled pipe body consisting of an inner pipe and an outer pipe as well as at least one pipe collar arranged at the end side, wherein the inner pipe is formed from a plastic material and in the pipe collar is set a wear ring , the inner diameter (Di9) of which is less than or equal to the inner diameter (Di3) of the inner pipe , characterised in that the inner pipe is poured into the outer pipe in a casting procedure.
A thermoelectric conversion device comprising: a first material represented by composition formula AB x (wherein A is at least one element selected from the group consisting of Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Sc, Y, La, Bi, He, Ne, Ar, Kr, and Xe, and B is at least one element selected from the group consisting of Zn, Cu, Ag, Au, Al, Ga, In, Si, Ge, and Sn), and having a lattice thermal conductivity that is lower than its electron thermal conductivity; and a second material having a higher Seebeck coefficient than the first material, and an electron thermal conductivity that is lower than its lattice thermal conductivity, wherein the lattice thermal conductivity of the first material is lower than the lattice thermal conductivity of the second material, and wherein the distance from the interface between the first material and the second material to an end portion of the first material and to an end portion of the second material is 500 nm or less. a first material represented by composition formula AB x (wherein A is at least one element selected from the group consisting of Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Sc, Y, La, Bi, He, Ne, Ar, Kr, and Xe, and B is at least one element selected from the group consisting of Zn, Cu, Ag, Au, Al, Ga, In, Si, Ge, and Sn), and having a lattice thermal conductivity that is lower than its electron thermal conductivity; and a second material having a higher Seebeck coefficient than the first material, and an electron thermal conductivity that is lower than its lattice thermal conductivity, wherein the lattice thermal conductivity of the first material is lower than the lattice thermal conductivity of the second material, and wherein the distance from the interface between the first material and the second material to an end portion of the first material and to an end portion of the second material is 500 nm or less.
A first communication device for a wireless communication system , the first communication device being configured for groupcast communication with a set of second communication devices (300a, 300b,..., 300n), and further being configured to obtain one or more received signal qualities from respective one or more second communication devices of a reporting subset (300a', 300b',..., 300n') in the set of second communication devices (300a, 300b,..., 300n); determine at least one path loss value for the reporting subset (300a', 300b',..., 300n') based on the one or more obtained received signal qualities; wherein the reporting subset is smaller than the set of second communication devices such that the reporting subset comprises fewer second communication devices than the set of second communication devices; and wherein the first communication device is configured to define the reporting subset (300a', 300b',..., 300n') per beam, per beam pair link, or per QCL configuration. obtain one or more received signal qualities from respective one or more second communication devices of a reporting subset (300a', 300b',..., 300n') in the set of second communication devices (300a, 300b,..., 300n); determine at least one path loss value for the reporting subset (300a', 300b',..., 300n') based on the one or more obtained received signal qualities; wherein the reporting subset is smaller than the set of second communication devices such that the reporting subset comprises fewer second communication devices than the set of second communication devices; and wherein the first communication device is configured to define the reporting subset (300a', 300b',..., 300n') per beam, per beam pair link, or per QCL configuration.
A hydraulic system of a utility vehicle consisting of a tractor vehicle (A) and a trailer (B), comprising an auxiliary drive , a hydraulic pump and a first valve arrangement , wherein, in an operating mode, the auxiliary drive is supplied with hydraulic energy by the hydraulic pump via the first valve arrangement , wherein, in addition to the auxiliary drive , the hydraulic pump supplies at least one further hydraulically operated system with hydraulic energy, wherein the hydraulic pump is arranged on the tractor vehicle (A), and wherein the auxiliary drive is arranged on the trailer (B), which is able to be coupled to the tractor vehicle (A), wherein two auxiliary drives are provided, and are arranged and fixed on in each case one wheel suspension of the trailer (B), characterized in that a second valve arrangement , which is designed for setting the running direction of the auxiliary drive , is provided on the trailer (B), wherein the first and second valve arrangements are designed either for supplying the two auxiliary drives with equal hydraulic energy or, according to journey and state of movement of the trailer (B), for supplying one of the drives with more hydraulic energy than the in each case other one.
Method for the additive manufacturing of a three-dimensional workpiece in which a thermoplastic material is changed by means of heating to a liquid phase and selectively applied at locations which are predetermined by the shape and the dimensions of the workpiece , wherein the workpiece is built up in layers on a substrate carrier , characterized in that the workpiece which is built up in layers on the substrate carrier is moved to cool and solidify the material from a construction chamber , which is preferably heated, into a cooling chamber which is separated from the construction chamber by a movable wall , and in that , after the cooling and solidification of the material, the substrate carrier with the workpiece is removed from the cooling chamber and replaced with a still unprinted substrate carrier . characterized in that the workpiece which is built up in layers on the substrate carrier is moved to cool and solidify the material from a construction chamber , which is preferably heated, into a cooling chamber which is separated from the construction chamber by a movable wall , and in that , after the cooling and solidification of the material, the substrate carrier with the workpiece is removed from the cooling chamber and replaced with a still unprinted substrate carrier .
A composition for use in preventing or treating wound, comprising one or more indirubin derivative selected from Chemical Formulas 1-4 as an active ingredient: wherein the wound is caused by diabetic wound.
A robotic lawnmower system , comprising a charging station comprising a controller said controller being configured to associate a first time slot for use to transmit a guide signal associated with a guide cable and to associate a second time slot for use to transmit a signal associated with another use, and a robotic lawnmower , wherein the robotic lawnmower system is characterized in that said controller is configured to detect if the guide cable is connected to the charging station or not, and if not, allot said first associated time slot to said another use in addition to the already allotted second time slot.