mhurhangee/patent-ind-claim-en huggingface dataset:
A detection apparatus of electrochemical impedance spectroscopy, comprising: a waveform generator , the waveform generator being integrated in a battery monitoring chip ; an excitation resistor ; a detection resistor ; and an MOS switch , wherein the excitation resistor is connected between a positive electrode of a battery and a drain electrode of the MOS switch and the detection resistor is connected between a negative electrode of the battery and a source electrode of the MOS switch ; wherein the waveform generator is configured to generate a pulse waveform, a gate electrode of the MOS switch is configured to receive the pulse waveform, the excitation resistor is configured to enable the battery to generate an excitation current when the gate electrode of the MOS switch receives the pulse waveform, the detection resistor is configured to convert the excitation current into an excitation voltage, the excitation voltage is configured to calculate an electrochemical impedance of the battery, wherein pulse waveforms under different frequencies corresponds to different electrochemical impedances of the battery, and the different electrochemical impedances are configured to provide electrochemical impedance spectroscopy of the battery; wherein the excitation resistor and the detection resistor are further configured for discharge equalization of the battery when the MOS switch is on. a waveform generator , the waveform generator being integrated in a battery monitoring chip ; an excitation resistor ; a detection resistor ; and an MOS switch , wherein the excitation resistor is connected between a positive electrode of a battery and a drain electrode of the MOS switch and the detection resistor is connected between a negative electrode of the battery and a source electrode of the MOS switch ; wherein the waveform generator is configured to generate a pulse waveform, a gate electrode of the MOS switch is configured to receive the pulse waveform, the excitation resistor is configured to enable the battery to generate an excitation current when the gate electrode of the MOS switch receives the pulse waveform, the detection resistor is configured to convert the excitation current into an excitation voltage, the excitation voltage is configured to calculate an electrochemical impedance of the battery, wherein pulse waveforms under different frequencies corresponds to different electrochemical impedances of the battery, and the different electrochemical impedances are configured to provide electrochemical impedance spectroscopy of the battery; wherein the excitation resistor and the detection resistor are further configured for discharge equalization of the battery when the MOS switch is on.
A cloud gaming system comprising: a messaging bus ; and a plurality of servers that are interconnected via the messaging bus and that are each communicatively coupled via one or more networks to one or more client devices ; wherein each server executes a game simulation instance for each of one or more players of a plurality of players, each respective player associated with one of the one or more client devices; wherein a game world is logically partitioned into a plurality of regions ; wherein an ad-hoc peer-to-peer network (212-1, 212,2) is formed between multiple game simulation instances associated with players located within one specified region (210-1, 210-2) of the plurality of regions of the game world ; wherein each game simulation instance associated with a respective player within the specified region (210-1, 210-2) of the game world communicates player input by the respective player to one or more other game simulation instances via the ad-hoc peer-to-peer network , wherein the ad-hoc peer-to-peer network (212-1, 212-2) is supported by the messaging bus for transmitting the player input between servers executing game simulation instances associated with players that are located within the specified region (210-1, 210-2); and wherein each respective game simulation instance associated with a player within the specified region calculates a current state for the respective game simulation instance based on player inputs received via the ad-hoc peer-to-peer network. a messaging bus ; and a plurality of servers that are interconnected via the messaging bus and that are each communicatively coupled via one or more networks to one or more client devices ; wherein each server executes a game simulation instance for each of one or more players of a plurality of players, each respective player associated with one of the one or more client devices; wherein a game world is logically partitioned into a plurality of regions ; wherein an ad-hoc peer-to-peer network (212-1, 212,2) is formed between multiple game simulation instances associated with players located within one specified region (210-1, 210-2) of the plurality of regions of the game world ; wherein each game simulation instance associated with a respective player within the specified region (210-1, 210-2) of the game world communicates player input by the respective player to one or more other game simulation instances via the ad-hoc peer-to-peer network , wherein the ad-hoc peer-to-peer network (212-1, 212-2) is supported by the messaging bus for transmitting the player input between servers executing game simulation instances associated with players that are located within the specified region (210-1, 210-2); and wherein each respective game simulation instance associated with a player within the specified region calculates a current state for the respective game simulation instance based on player inputs received via the ad-hoc peer-to-peer network.
A disposable diaper having a transverse and longitudinal dimension and comprising a backsheet , a topsheet and an absorbent core disposed therebetween, wherein said absorbent core comprises at least one absorbent structure and an acquisition system disposed between said topsheet and a wearer-facing side of said absorbent structure , said absorbent structure comprising a substrate layer and an absorbent layer supported by said substrate layer , said absorbent layer comprising absorbent polymer particles and having: i. a transverse (N) and longitudinal dimension (M); and ii. a pair of opposing longitudinal edges extending in said longitudinal dimension (M); and iii. a pair of opposing transversal edges extending in said transverse dimension (N); and iv. front, crotch and back regions arranged sequentially in said longitudinal dimension (M); and v. two longitudinal portions delimited by a central longitudinal axis of said absorbent layer ; wherein said absorbent layer comprises at least two channels substantially free of said absorbent polymeric particles extending in its longitudinal dimension (M), wherein each longitudinal portion of said absorbent layer comprises one of said channels and wherein each of said at least two channels : a. has a width of at least 3 mm or of at least 4% of the transverse dimension (N) of said absorbent layer ; and b. extends over at least 15% of the longitudinal dimension (M) of said absorbent layer ; and c. is at least present in said crotch region or part thereof; and wherein said absorbent layer does not comprise channels substantially free of absorbent polymeric particles extending up to its longitudinal and transverse edges , characterised in that : said absorbent layer consists of said superabsorbent polymer particles and is immobilized on said substrate layer ; and each of said at least two channels extends through the thickness of said absorbent layer ; and said absorbent layer _does not comprise channels substantially free of absorbent polymer particles extending in its transverse dimension (N) in said crotch region . i. a transverse (N) and longitudinal dimension (M); and ii. a pair of opposing longitudinal edges extending in said longitudinal dimension (M); and iii. a pair of opposing transversal edges extending in said transverse dimension (N); and iv. front, crotch and back regions arranged sequentially in said longitudinal dimension (M); and v. two longitudinal portions delimited by a central longitudinal axis of said absorbent layer ; a. has a width of at least 3 mm or of at least 4% of the transverse dimension (N) of said absorbent layer ; and b. extends over at least 15% of the longitudinal dimension (M) of said absorbent layer ; and c. is at least present in said crotch region or part thereof; said absorbent layer consists of said superabsorbent polymer particles and is immobilized on said substrate layer ; and each of said at least two channels extends through the thickness of said absorbent layer ; and said absorbent layer _does not comprise channels substantially free of absorbent polymer particles extending in its transverse dimension (N) in said crotch region .
A system for the identification, removal, and control of contaminations on an animal carcass , which system comprises the following elements: i. a processing means ; ii. a detection system (A), comprising one or more cameras , in communication with the processing means , and one or more light sources , optionally in communication with the processing means , which detection system is capable of identifying and determining the presence and location of any contamination in a three-dimensional space; iii. a removal system (B) comprising a removal tool , mounted on a robotic arm , guided by a robot , in communication with the processing means , and capable of removing or trimming away any contamination as determined by the detecting system (A), said removal system (B) including an inspection system (C), comprising one or more cameras , in communication with the processing means , and one or more light sources , optionally in communication with the processing means , which inspection system is capable of identifying the presence, and of determining the location of any contamination on the animal carcass; wherein the removal system (B) is arranged to perform both removal of any contaminations, and inspection of this removal. i. a processing means ; ii. a detection system (A), comprising one or more cameras , in communication with the processing means , and one or more light sources , optionally in communication with the processing means , which detection system is capable of identifying and determining the presence and location of any contamination in a three-dimensional space; iii. a removal system (B) comprising a removal tool , mounted on a robotic arm , guided by a robot , in communication with the processing means , and capable of removing or trimming away any contamination as determined by the detecting system (A), said removal system (B) including an inspection system (C), comprising one or more cameras , in communication with the processing means , and one or more light sources , optionally in communication with the processing means , which inspection system is capable of identifying the presence, and of determining the location of any contamination on the animal carcass;
An elevator load bearing assembly suitable for supporting the weight of an elevator car , the elevator load bearing assembly comprising: at least one elongated tension member ; a jacket covering at least some of the at least one tension member, wherein the jacket comprises (a) a polymer material ; and (b) a flame retardant , characterized in that the flame retardant is a filled polymer having a nanoscale filler chemically bonded to a matrix phase, wherein the flame retardant nanoscale filler comprises a polyhedral oligomeric silsesquioxane, and in that the flame retardant is mixed with said polymer material , and the jacket material includes less than 10% by weight of the flame retardant. at least one elongated tension member ; a jacket covering at least some of the at least one tension member, wherein the jacket comprises (a) a polymer material ; and (b) a flame retardant , (a) a polymer material ; and (b) a flame retardant , characterized in that the flame retardant is a filled polymer having a nanoscale filler chemically bonded to a matrix phase, wherein the flame retardant nanoscale filler comprises a polyhedral oligomeric silsesquioxane, and in that the flame retardant is mixed with said polymer material , and the jacket material includes less than 10% by weight of the flame retardant.
A display unit comprising: a transparent plate having a rectangular shape and a front surface and a rear surface that are opposite to each other, and disposed to allow substantially an entire region of the front surface to be exposed, the transparent plate having a curved shape that is bent in an arc shape in a first direction, the first direction being a longitudinal direction and the first surface being concave; and a display body joined to the side of the rear surface of the transparent plate to follow the curved shape; a speaker having speaker elements provided at regions along each of short sides of the transparent plate , wherein openings are disposed correspondingly to respective speaker elements in each of the regions , wherein each speaker element includes a speaker unit (17a5), a diaphragm (17a1), a plate member (17a4) that supports the diaphragm (17a1) and has an edge portion that is raised toward a rear side, and an ornamental member (17a2) that is attached to a front side of the plate member (17a4) and includes an inverted truncated cone-shaped inclined surface formed to surround the diaphragm . a transparent plate having a rectangular shape and a front surface and a rear surface that are opposite to each other, and disposed to allow substantially an entire region of the front surface to be exposed, the transparent plate having a curved shape that is bent in an arc shape in a first direction, the first direction being a longitudinal direction and the first surface being concave; and a display body joined to the side of the rear surface of the transparent plate to follow the curved shape; a speaker having speaker elements provided at regions along each of short sides of the transparent plate , wherein openings are disposed correspondingly to respective speaker elements in each of the regions , wherein each speaker element includes a speaker unit (17a5), a diaphragm (17a1), a plate member (17a4) that supports the diaphragm (17a1) and has an edge portion that is raised toward a rear side, and an ornamental member (17a2) that is attached to a front side of the plate member (17a4) and includes an inverted truncated cone-shaped inclined surface formed to surround the diaphragm .
Component , comprising at least two component parts which abut one another along mutually facing surfaces , and at least one connecting element , wherein the component parts each have at least one recess formed as an undercut and having side surfaces and an opening which is open towards the mutually facing surfaces of the component parts , wherein the openings lie in the surfaces of the component parts abutting one another in the component , wherein the recesses are aligned transversely to the surface extension of the component parts , wherein the recesses are formed narrower in the region of their openings than in the region of their base remote from the openings, and wherein the at least one connecting element has ribs , which have the same cross-sectional shape as the recesses in the component parts , wherein the at least one connecting element consists of two wedge-shaped parts with wedge surfaces , wherein the parts laid against one another fill the recesses completely, wherein the wedge surfaces of the connecting element are aligned transversely to the mutually facing surfaces of the component parts , and over the length of the surfaces with which the component parts of the component abut one another, a plurality of connecting elements are provided in each case, characterized in that the connecting element , which consists of the two wedge-shaped parts , has a length which corresponds essentially to the thickness of the component parts .
A network apparatus controlling method, applied to a network apparatus controlling device , for controlling a plurality of node devices in a mesh network , wherein the plurality of node devices respectively comprise a library and a device name corresponding to the library , the library comprises a network key, the network apparatus controlling device comprises a database , the database stores a data of the device name and the library of the plurality of node devices , and the plurality of node devices comprise an intermediary node device , the network apparatus controlling method comprising: in a device configuration stage, causing the library of the plurality of node devices to have the same network key; via a network module, electrically connecting to the intermediary node device ; via a node name obtaining module which analyzes a Bluetooth network packet sent by the intermediary node device , obtaining the device name of the intermediary node device ; according to the device name, identifying the library of the intermediary node device and a content of the library to confirm an accessing encryption process used by the library ; and, after the confirming accessing encryption process is transferred to a setting module , switching by the setting module to the accessing encryption process corresponding to the library to complete the accessing encryption process between the network apparatus controlling device and the intermediary node device such that the network apparatus controlling device and the node device of the intermediary node device are compatible to send data to each other, and such that the network apparatus controlling device can send an order data to the plurality of node devices in the mesh network via the intermediary node device . in a device configuration stage, causing the library of the plurality of node devices to have the same network key; via a network module, electrically connecting to the intermediary node device ; via a node name obtaining module which analyzes a Bluetooth network packet sent by the intermediary node device , obtaining the device name of the intermediary node device ; according to the device name, identifying the library of the intermediary node device and a content of the library to confirm an accessing encryption process used by the library ; and, after the confirming accessing encryption process is transferred to a setting module , switching by the setting module to the accessing encryption process corresponding to the library to complete the accessing encryption process between the network apparatus controlling device and the intermediary node device such that the network apparatus controlling device and the node device of the intermediary node device are compatible to send data to each other, and such that the network apparatus controlling device can send an order data to the plurality of node devices in the mesh network via the intermediary node device .
A method of automatically controlling the speed control of a vehicle in response to a driver set-speed set by a driver, to maintain the vehicle at a speed control set-speed substantially equal to the driver set-speed, said method comprising: detecting an off-road condition of the vehicle ; and automatically setting a maximum automatic speed control speed appropriate to the detected off-road condition, wherein detecting at least one off-road condition comprises at least one of: detecting a driver-selected off-road terrain type and automatic sensing by a system of the vehicle of an off-road terrain type detecting an off-road condition of the vehicle ; and automatically setting a maximum automatic speed control speed appropriate to the detected off-road condition, wherein detecting at least one off-road condition comprises at least one of: detecting a driver-selected off-road terrain type and automatic sensing by a system of the vehicle of an off-road terrain type
An apparatus, comprising: a capacitive sensor ; a body configured to support the capacitive sensor; and a driver configured to receive signals from the capacitive sensor and to determine eye movements of a user based on the received signals; wherein the sensor is configured to detect movement of the eye; characterized in that the capacitive sensor is a transparent capacitive sensor; the body is configured to support the sensor in front of an eye of a user; and the sensor is configured to detect movement of the eye based on electrostatic effect caused by a bulge of eye cornea. a capacitive sensor ; a body configured to support the capacitive sensor; and a driver configured to receive signals from the capacitive sensor and to determine eye movements of a user based on the received signals; wherein the sensor is configured to detect movement of the eye; characterized in that the capacitive sensor is a transparent capacitive sensor; the body is configured to support the sensor in front of an eye of a user; and the sensor is configured to detect movement of the eye based on electrostatic effect caused by a bulge of eye cornea.
A system for portable fluidic pumping, the system comprising: a chip ; a void disposed within the chip; the void comprising a volume configured to store a vacuum upon subjecting the chip to a vacuum state; a vacuum channel coupled to and in communication with the void; a fluid channel disposed adjacent to the vacuum channel such that a thin gas-permeable wall of material is disposed between the fluid channel and the vacuum channel ; wherein the fluid channel and vacuum channel are not physically connected to each other; characterized by a containment for maintaining the chip in said vacuum state; the system being so configured that, upon release of the chip from the vacuum state in the containment , the stored vacuum within the void passively draws air across the thin gas-permeable wall into the void to advance a fluid sample into the fluid channel . a chip ; a void disposed within the chip; the void comprising a volume configured to store a vacuum upon subjecting the chip to a vacuum state; a vacuum channel coupled to and in communication with the void; a fluid channel disposed adjacent to the vacuum channel such that a thin gas-permeable wall of material is disposed between the fluid channel and the vacuum channel ; wherein the fluid channel and vacuum channel are not physically connected to each other; characterized by a containment for maintaining the chip in said vacuum state; the system being so configured that, upon release of the chip from the vacuum state in the containment , the stored vacuum within the void passively draws air across the thin gas-permeable wall into the void to advance a fluid sample into the fluid channel .