mhurhangee/patent-ind-claim-en huggingface dataset:
An excavator comprising a wiring assembly , the wiring assembly comprising: a machine connector block affixed to the excavator ; a first wiring harness comprising: a first branch including a first connector coupled to the machine connector block ; and a second branch connected to the first connector, the second branch including a second connector coupled to a first machine connector of the excavator; and a second wiring harness comprising: a third branch including a third connector coupled to the machine connector block to connect to the first connector; a fourth branch connected to the third connector, the fourth branch including a fourth connector coupled to a second machine connector of the excavator ; and a fifth branch connected to the third connector, the fifth branch including a fifth connector coupled to a tiltrotator connector of a tiltrotator of the excavator. a machine connector block affixed to the excavator ; a first wiring harness comprising: a first branch including a first connector coupled to the machine connector block ; and a second branch connected to the first connector, the second branch including a second connector coupled to a first machine connector of the excavator; and a first branch including a first connector coupled to the machine connector block ; and a second branch connected to the first connector, the second branch including a second connector coupled to a first machine connector of the excavator; and a second wiring harness comprising: a third branch including a third connector coupled to the machine connector block to connect to the first connector; a fourth branch connected to the third connector, the fourth branch including a fourth connector coupled to a second machine connector of the excavator ; and a fifth branch connected to the third connector, the fifth branch including a fifth connector coupled to a tiltrotator connector of a tiltrotator of the excavator. a third branch including a third connector coupled to the machine connector block to connect to the first connector; a fourth branch connected to the third connector, the fourth branch including a fourth connector coupled to a second machine connector of the excavator ; and a fifth branch connected to the third connector, the fifth branch including a fifth connector coupled to a tiltrotator connector of a tiltrotator of the excavator.
Master Unit (OM) comprising a line interface (IL) suitable for connection to a communication network (RC) adapted for the bidirectional transmission of non-video data frames and the unidirectional transmission of video data frames, and a microcontroller (MC) coupled to said line interface (IL) via a fault line (LD) capable of transmitting to it primary information representative of the presence or absence of a fault in the physical layer ensuring said bidirectional transmission, said master device being arranged so as to exchange non-video data frames bidirectionally, and video data frames in a unidirectional manner with at least one slave organ, characterised in that it further comprises analysis means (MA) arranged to consider that there is a confirmed defect in said physical layer in the event of reception by said microcontroller (MC) of primary information signalling the presence in a confirmed manner of a defect in said physical layer, and storage means (MS) capable of storing a value representative of a confirmed defect in said physical layer each time said analysis means (MA) consider that there is a defect in said physical layer.
A method of manufacturing a three-dimensional article, the method comprising: a. depositing a high-performance polymer (HPP) composition comprising a first HPP dissolved in a solvent and a second HPP as a solid, wherein the solvent comprises fenchone; b. exposing the HPP composition to a stimulus to form a polymer layer of the three-dimensional article; and c. repeating the steps (a)-(b) to form remainder of the three-dimensional article. a. depositing a high-performance polymer (HPP) composition comprising a first HPP dissolved in a solvent and a second HPP as a solid, wherein the solvent comprises fenchone; b. exposing the HPP composition to a stimulus to form a polymer layer of the three-dimensional article; and c. repeating the steps (a)-(b) to form remainder of the three-dimensional article.
A method of manufacturing an optical article comprising: an output light flux generating process of generating an output light flux by inputting a light propagated from a light source to an output setting element having a repetition structure that generates a desired shape of output area and maintaining the desired shape of the output area for a desired period; a cured layer forming process of forming a cured layer at an irradiation area that is formed in correspondence with the output area by introducing the output light flux through a projection optical system into a container in which light-curable resin in a liquid state is contained and a stage is arranged and condensing the output light flux; and a first direction stage moving process of moving the stage in a desired distance along the first direction of the output flux propagating, wherein the output light flux generating process, the cured layer forming process and the first direction stage moving process are sequentially performed in this order, and thereby forming the optical article in a repetition structure on a surface of the stage , and wherein the method further comprises an irradiation variation process that reduces the diffraction effect by reducing contrast of periodical refractive index distribution that comes from the repetition structure in the optical article. an output light flux generating process of generating an output light flux by inputting a light propagated from a light source to an output setting element having a repetition structure that generates a desired shape of output area and maintaining the desired shape of the output area for a desired period; a cured layer forming process of forming a cured layer at an irradiation area that is formed in correspondence with the output area by introducing the output light flux through a projection optical system into a container in which light-curable resin in a liquid state is contained and a stage is arranged and condensing the output light flux; and a first direction stage moving process of moving the stage in a desired distance along the first direction of the output flux propagating, wherein the output light flux generating process, the cured layer forming process and the first direction stage moving process are sequentially performed in this order, and thereby forming the optical article in a repetition structure on a surface of the stage , and wherein the method further comprises an irradiation variation process that reduces the diffraction effect by reducing contrast of periodical refractive index distribution that comes from the repetition structure in the optical article.
A communication apparatus comprising: an encoding unit configured to generate a first sequence of encoded bits from a first sequence of bits by performing a first encoding procedure, and to generate a second sequence of encoded bits from a sequence of frozen bits and a second sequence of bits comprising the first sequence of bits and the first sequence of encoded bits by performing a second encoding procedure which is a polar encoding procedure; and a transmission unit configured to transmit a signal generated from the second sequence of encoded bits, wherein the encoding unit is configured to determine the second sequence of encoded bits based on a length of the second sequence of bits, and the communication apparatus is configured to determine the sequence of frozen bits such that the sequence of frozen bits has different values depending on the length of the second sequence of bits. an encoding unit configured to generate a first sequence of encoded bits from a first sequence of bits by performing a first encoding procedure, and to generate a second sequence of encoded bits from a sequence of frozen bits and a second sequence of bits comprising the first sequence of bits and the first sequence of encoded bits by performing a second encoding procedure which is a polar encoding procedure; and a transmission unit configured to transmit a signal generated from the second sequence of encoded bits, wherein the encoding unit is configured to determine the second sequence of encoded bits based on a length of the second sequence of bits, and the communication apparatus is configured to determine the sequence of frozen bits such that the sequence of frozen bits has different values depending on the length of the second sequence of bits.
A replaceable smart battery pack for use in a mobile device, the battery pack comprising a number of cells (B1...B4), and a smart battery management system for controlling and monitoring the number of cells, the smart battery management system is controlled by means of a first protocol using a bidirectional 2-wire bus; characterized in that, the replaceable smart battery pack further comprises at least one sensor and an additional processor , a first sensor of the at least one sensor is configured for detecting a touch profile of a user and generating a corresponding battery pack control signal, the additional processor is configured to receive the corresponding battery pack control signal and to communicate with the smart battery management system by means of the first protocol in response to the corresponding battery pack control signal.
A composition for a heat cycle system, which comprises a working fluid for heat cycle containing trifluoroethylene, and CF 3 I.
A non-transitory computer readable medium comprising instructions which, when executed by one or more hardware processors, causes performance of operations comprising: selecting a first controller (100; 900) of a cluster of controllers for managing a first access point (130; 940); selecting the first controller (100; 900) for managing a second access point (140; 950); wherein the first controller is responsible for handling the management of the first access point and for providing an AP-to-controller configuration table to the first and second access point and wherein the cluster of controllers comprises a plurality of controllers storing the AP-to-controller configuration table, detecting a particular event; the instructions characterised in that responsive to detecting the particular event they cause the performance of operations comprising: selecting a second controller (110; 910) of a cluster of controllers for managing the first access point (130; 940) without modifying the selection of the first controller (100; 900) for managing the second access point by updating the AP-to-controller configuration table and sharing the updated configuration table with the controllers of the cluster of controllers ; wherein controllers within the cluster (125; 925) are able to communicate data among all controllers in the cluster (125; 925) and wherein the first and second access points (130; 940; 140; 950) are edge devices that control access to a network. selecting a first controller (100; 900) of a cluster of controllers for managing a first access point (130; 940); selecting the first controller (100; 900) for managing a second access point (140; 950); wherein the first controller is responsible for handling the management of the first access point and for providing an AP-to-controller configuration table to the first and second access point and wherein the cluster of controllers comprises a plurality of controllers storing the AP-to-controller configuration table, detecting a particular event; the instructions characterised in that responsive to detecting the particular event they cause the performance of operations comprising: selecting a second controller (110; 910) of a cluster of controllers for managing the first access point (130; 940) without modifying the selection of the first controller (100; 900) for managing the second access point by updating the AP-to-controller configuration table and sharing the updated configuration table with the controllers of the cluster of controllers ; wherein controllers within the cluster (125; 925) are able to communicate data among all controllers in the cluster (125; 925) and wherein the first and second access points (130; 940; 140; 950) are edge devices that control access to a network.
A compound of Formula le: or a pharmaceutically acceptable salt thereof, for use in medicine, wherein: R1 is a carbohydrate group R2 is selected from hydrogen, a C1-C24 alkyl or a C1-C24 derivative of an alkyl group, a C2-C24 alkenyl or a C2-C24 derivative of an alkenyl group, and a C2-C24 alkynyl group or a C2-C24 derivative of an alkynyl group; R3 is selected from hydrogen, a C1-C24 alkyl or a C1-C24 derivative of an alkyl group, a C2-C24 alkenyl or a C2-C24 derivative of an alkenyl group, and a C2-C24 alkynyl group or a C2-C24 derivative of an alkynyl group; X is either absent or is -O-, -NR a -, -S- or -CR a R b -, wherein R a and R b are independently selected from the group consisting of hydrogen and C1-C4 alkyl, n is an integer of from 1 to 6, e.g. 1, 2 or 3; and wherein said derivative of alkyl, alkenyl or alkynyl group is composed of said alkyl, alkenyl or alkynyl group wherein one of more of the hydrogen atoms in the hydrocarbon chain of said derivative are replaced with substituent groups selected from hydroxyl, amino, carboxyl, aryl, or heteroaryl groups. or a pharmaceutically acceptable salt thereof, for use in medicine, wherein: R1 is a carbohydrate group R2 is selected from hydrogen, a C1-C24 alkyl or a C1-C24 derivative of an alkyl group, a C2-C24 alkenyl or a C2-C24 derivative of an alkenyl group, and a C2-C24 alkynyl group or a C2-C24 derivative of an alkynyl group; R3 is selected from hydrogen, a C1-C24 alkyl or a C1-C24 derivative of an alkyl group, a C2-C24 alkenyl or a C2-C24 derivative of an alkenyl group, and a C2-C24 alkynyl group or a C2-C24 derivative of an alkynyl group; X is either absent or is -O-, -NR a -, -S- or -CR a R b -, wherein R a and R b are independently selected from the group consisting of hydrogen and C1-C4 alkyl, n is an integer of from 1 to 6, e.g. 1, 2 or 3; and wherein said derivative of alkyl, alkenyl or alkynyl group is composed of said alkyl, alkenyl or alkynyl group wherein one of more of the hydrogen atoms in the hydrocarbon chain of said derivative are replaced with substituent groups selected from hydroxyl, amino, carboxyl, aryl, or heteroaryl groups. R1 is a carbohydrate group R2 is selected from hydrogen, a C1-C24 alkyl or a C1-C24 derivative of an alkyl group, a C2-C24 alkenyl or a C2-C24 derivative of an alkenyl group, and a C2-C24 alkynyl group or a C2-C24 derivative of an alkynyl group; R3 is selected from hydrogen, a C1-C24 alkyl or a C1-C24 derivative of an alkyl group, a C2-C24 alkenyl or a C2-C24 derivative of an alkenyl group, and a C2-C24 alkynyl group or a C2-C24 derivative of an alkynyl group; X is either absent or is -O-, -NR a -, -S- or -CR a R b -, wherein R a and R b are independently selected from the group consisting of hydrogen and C1-C4 alkyl, n is an integer of from 1 to 6, e.g. 1, 2 or 3; and wherein said derivative of alkyl, alkenyl or alkynyl group is composed of said alkyl, alkenyl or alkynyl group wherein one of more of the hydrogen atoms in the hydrocarbon chain of said derivative are replaced with substituent groups selected from hydroxyl, amino, carboxyl, aryl, or heteroaryl groups.
At a power supply device, a method for managing DC power, the method comprising: providing DC power at a first voltage until determining that a standby time period has elapsed; determining that a load is connected to the power supply device; characterised by further comprising: determining that an enable signal has not been received from a device configured to output the enable signal to the power supply device based on receiving DC power from the power supply device; based on i) determining that the standby time period has elapsed, ii) determining that the load is connected to the power supply device and iii) determining that the enable signal has not been received, entering a restricted power mode, wherein the restricted power mode comprises either: deactivating the DC power, or 1) providing the DC power at a second voltage until determining that a load detection time period has elapsed, 2) deactivating the DC power after determining that the load detection time period has elapsed, and 3) repeating 1) and 2) until determining that the load is no longer connected to the power supply device. providing DC power at a first voltage until determining that a standby time period has elapsed; determining that a load is connected to the power supply device; characterised by further comprising: determining that an enable signal has not been received from a device configured to output the enable signal to the power supply device based on receiving DC power from the power supply device; based on i) determining that the standby time period has elapsed, ii) determining that the load is connected to the power supply device and iii) determining that the enable signal has not been received, entering a restricted power mode, wherein the restricted power mode comprises either: deactivating the DC power, or 1) providing the DC power at a second voltage until determining that a load detection time period has elapsed, 2) deactivating the DC power after determining that the load detection time period has elapsed, and 3) repeating 1) and 2) until determining that the load is no longer connected to the power supply device. 1) providing the DC power at a second voltage until determining that a load detection time period has elapsed, 2) deactivating the DC power after determining that the load detection time period has elapsed, and 3) repeating 1) and 2) until determining that the load is no longer connected to the power supply device.
A method of transmitting a block of data in a distributed MIMO system, wherein the distributed MIMO system comprises: a plurality of access points; and wherein the plurality of access points are grouped into a first set of M groups and a second set of M groups, different from the first set, wherein M is an integer and wherein both of the first and second sets of M groups include all of the plurality of access points; a first antenna port mapping assigns each group of the first set to a unique one of M antenna ports; and a second antenna port mapping assigns each group of the second set to a unique one of M antenna ports; the method comprising: transmitting the block of data using both the first and the second antenna port mapping, wherein transmitting the block of data comprises: in a first time slot, transmitting the block of data using the first antenna port mapping, and in a later second time slot, transmitting the block of data using the second antenna port mapping; and/or in a first frequency band, transmitting the block of data using the first antenna port mapping, and in a second frequency band, transmitting the block of data using the second antenna port mapping. a plurality of access points; and wherein the plurality of access points are grouped into a first set of M groups and a second set of M groups, different from the first set, wherein M is an integer and wherein both of the first and second sets of M groups include all of the plurality of access points; a first antenna port mapping assigns each group of the first set to a unique one of M antenna ports; and a second antenna port mapping assigns each group of the second set to a unique one of M antenna ports; the method comprising: transmitting the block of data using both the first and the second antenna port mapping, wherein transmitting the block of data comprises: in a first time slot, transmitting the block of data using the first antenna port mapping, and in a later second time slot, transmitting the block of data using the second antenna port mapping; and/or in a first frequency band, transmitting the block of data using the first antenna port mapping, and in a second frequency band, transmitting the block of data using the second antenna port mapping. in a first time slot, transmitting the block of data using the first antenna port mapping, and in a later second time slot, transmitting the block of data using the second antenna port mapping; and/or in a first frequency band, transmitting the block of data using the first antenna port mapping, and in a second frequency band, transmitting the block of data using the second antenna port mapping.
A method of controlling hoses and pipes that become disconnected under pressure comprising the steps of: providing a first elongated tether , the first elongated tether having a first end and a second end ; attaching the first end of the first elongated tether to a first hose or pipe adjacent a first hose or pipe connection end ; tightening the first end of the first elongated tether around the first hose or pipe ; attaching the second end of the first elongated tether to a second hose or pipe adjacent a second hose or pipe connection end ; tightening the second end of the first elongated tether around the second hose or pipe ; the method characterized by : anchoring the first elongated tether to an anchoring structure using a basket choke , the basket choke is a second elongated tether , the second elongated tether having a first loop at a first end and a second loop at a second end, the second elongated tether being wrapped around the anchoring structure and the first loop of the second elongated tether and the second loop of the second elongated tether being connected to the first elongated tether . providing a first elongated tether , the first elongated tether having a first end and a second end ; attaching the first end of the first elongated tether to a first hose or pipe adjacent a first hose or pipe connection end ; tightening the first end of the first elongated tether around the first hose or pipe ; attaching the second end of the first elongated tether to a second hose or pipe adjacent a second hose or pipe connection end ; tightening the second end of the first elongated tether around the second hose or pipe ; the method characterized by : anchoring the first elongated tether to an anchoring structure using a basket choke , the basket choke is a second elongated tether , the second elongated tether having a first loop at a first end and a second loop at a second end, the second elongated tether being wrapped around the anchoring structure and the first loop of the second elongated tether and the second loop of the second elongated tether being connected to the first elongated tether .
Method for monitoring a fiber stream of a fiber material, in particular in spinning preparation, wherein a dissolution degree of the fiber material, which indicates how well the fiber material is dissolved into individual fiber flocks, is determined, characterized in that at least one image of the fiber material is taken and from the at least one image the image area on which fiber material is imaged is determined by image processing, a mass flow of the fiber stream per time unit is determined, and the dissolution degree as a scalar quantity is calculated by forming a quotient of the image area on which fiber material is imaged, on the one hand, and of the mass flow on the other hand. a dissolution degree of the fiber material, which indicates how well the fiber material is dissolved into individual fiber flocks, is determined, characterized in that at least one image of the fiber material is taken and from the at least one image the image area on which fiber material is imaged is determined by image processing, a mass flow of the fiber stream per time unit is determined, and the dissolution degree as a scalar quantity is calculated by forming a quotient of the image area on which fiber material is imaged, on the one hand, and of the mass flow on the other hand.