mhurhangee/ep-ind-claims huggingface dataset:
A robot comprising: a robot body; an end effector connected to the robot body; a cable composed of a plurality of sub cables (21 to 27), the cable being arranged along the robot body and connected to the end effector; and one or more coupling portions (31 to 34, 21a to 27a, 22b to 27b) each of which is provided between one sub cable and an adjacent sub cable of the sub cables (21 to 27) to couple the one and adjacent sub cables (21 to 27) together, wherein the robot body includes a base, a revolving portion, a lower arm, an upper arm, a first wrist portion, a second wrist portion, and a third wrist portion to which the end effector is connected, the coupling portions (31 to 34, 21a to 27a, 22b to 27b) include connectors (21a to 27a, 22b to 27b) that are connector-type coupling portions, the connectors (21a to 27a, 22b to 27b) are capable of being directly connected to one another and capable of being connected to a module (31 to 34) that is a modular coupling portion, and the module (31 to 34) includes a device (51 to 53) corresponding to at least the type of the cable to be coupled with the module, and the device (51 to 53) is at least one of a relay box for power supply, a valve, and a flow meter. a robot body; an end effector connected to the robot body; a cable composed of a plurality of sub cables (21 to 27), the cable being arranged along the robot body and connected to the end effector; and one or more coupling portions (31 to 34, 21a to 27a, 22b to 27b) each of which is provided between one sub cable and an adjacent sub cable of the sub cables (21 to 27) to couple the one and adjacent sub cables (21 to 27) together, wherein
An apparatus for stacking banknotes, comprising: a first weight measurement part (Sa) that measures a weight of a first banknote bundle, banknotes attached to each other along a thickness direction of the banknotes being bundled as the first banknote bundle, characterized by a second weight measurement part (Sb) that measures a weight of a second banknote bundle, a first predetermined number of first banknote bundles attached to each other being bundled as the second banknote bundle; and a controller that compares the weight measured by the first weight measurement part (Sa) with the weight measured by the second weight measurement part (Sb), and decides whether the number of first banknote bundles bundled as the second banknote bundle is smaller than the first predetermined number, based on a comparison result of the weight. a first weight measurement part (Sa) that measures a weight of a first banknote bundle, banknotes attached to each other along a thickness direction of the banknotes being bundled as the first banknote bundle, characterized by a second weight measurement part (Sb) that measures a weight of a second banknote bundle, a first predetermined number of first banknote bundles attached to each other being bundled as the second banknote bundle; and a controller that compares the weight measured by the first weight measurement part (Sa) with the weight measured by the second weight measurement part (Sb), and decides whether the number of first banknote bundles bundled as the second banknote bundle is smaller than the first predetermined number, based on a comparison result of the weight.
A physiological signal monitoring device for sensing a physiological signal in an analyte of a host, comprising: a sensing member, including a signal sensing end adapted to be inserted underneath a skin of the host to sense the physiological signal, and a signal output end for outputting the physiological signal; and a transmitter connected to said sensing member for receiving, processing and transmitting the physiological signal, said physiological signal monitoring device characterized in that said transmitter includes a circuit board having a plurality of electrical contacts, and a connecting port connected to said circuit board and having a socket which is communicated to said circuit board, and a plurality of conducting springs which are received within said connecting port; wherein, said sensing member is removably inserted into said socket; wherein, each of said conducting springs has one side electrically connected to a respective one of said electrical contacts of said circuit board and another side electrically connected to said signal output end of said sensing member for electric connection between the respective one of said electrical contacts and said signal output end; and wherein, each of said conducting springs is frictionally rotated by said sensing member during insertion of said sensing member into said socket and removal of said sensing member from said socket. a sensing member, including a signal sensing end adapted to be inserted underneath a skin of the host to sense the physiological signal, and a signal output end for outputting the physiological signal; and a signal sensing end adapted to be inserted underneath a skin of the host to sense the physiological signal, and a signal output end for outputting the physiological signal; and a transmitter connected to said sensing member for receiving, processing and transmitting the physiological signal, said physiological signal monitoring device characterized in that said transmitter includes a circuit board having a plurality of electrical contacts, and a connecting port connected to said circuit board and having a socket which is communicated to said circuit board, and a plurality of conducting springs which are received within said connecting port; wherein, said sensing member is removably inserted into said socket; wherein, each of said conducting springs has one side electrically connected to a respective one of said electrical contacts of said circuit board and another side electrically connected to said signal output end of said sensing member for electric connection between the respective one of said electrical contacts and said signal output end; and wherein, each of said conducting springs is frictionally rotated by said sensing member during insertion of said sensing member into said socket and removal of said sensing member from said socket.
A secure establishment method of a wireless local area network, comprising: acquiring, by a network element equipment in a mobile communication network to which a user equipment is accessed, a derivation key corresponding to an identifier of the user equipment requested by a wireless local area network node, wherein the derivation key is derived according to a first key and a derivation parameter by the network element equipment before a process of accessing to the wireless local area network node commences, the first key is a shared key of the network element equipment and the user equipment when implementing air interface security, or is derived according to the shared key of the network element equipment and the user equipment when implementing the air interface security, and the derivation parameter is provided by the network element equipment and notified to the user equipment; and sending, by the network element equipment, the derivation key to the wireless local area network node, for the wireless local area network node to establish, based on the derivation key, secure connection with the user equipment acquiring a derivation key, wherein the derivation key derived by the user equipment is the same as the derivation key sent by the network element equipment and received by the wireless local area network node. acquiring, by a network element equipment in a mobile communication network to which a user equipment is accessed, a derivation key corresponding to an identifier of the user equipment requested by a wireless local area network node, wherein the derivation key is derived according to a first key and a derivation parameter by the network element equipment before a process of accessing to the wireless local area network node commences, the first key is a shared key of the network element equipment and the user equipment when implementing air interface security, or is derived according to the shared key of the network element equipment and the user equipment when implementing the air interface security, and the derivation parameter is provided by the network element equipment and notified to the user equipment; and sending, by the network element equipment, the derivation key to the wireless local area network node, for the wireless local area network node to establish, based on the derivation key, secure connection with the user equipment acquiring a derivation key, wherein the derivation key derived by the user equipment is the same as the derivation key sent by the network element equipment and received by the wireless local area network node.
Method for adjusting at least two ultrasonic sensors of an apparatus for measuring a distance to an object, wherein the ultrasonic sensors are positioned with respect to one another in such a manner that the signals transmitted by one ultrasonic sensor can also be received by at least one further ultrasonic sensor, comprising the following steps of: (a) measuring the resonant frequency of all ultrasonic sensors used, (b) using a transmission frequency for each of the ultrasonic sensors, which transmission frequency corresponds to the arithmetic mean of the resonant frequencies of the ultrasonic sensors involved. (a) measuring the resonant frequency of all ultrasonic sensors used, (b) using a transmission frequency for each of the ultrasonic sensors, which transmission frequency corresponds to the arithmetic mean of the resonant frequencies of the ultrasonic sensors involved.
A method for manufacturing 1,4-bis(4-phenoxybenzoyl)benzene, comprising: - reacting terephthaloyl chloride with diphenyl ether in the presence of a Lewis acid, so as to obtain a product mixture comprising 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex, wherein the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex is, at least partly, in the form of a precipitate; - carrying out a solid/liquid separation of the product mixture to obtain a cake comprising the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex precipitate; - putting the cake in contact with a decomplexing solvent, wherein the decomplexing solvent is a protic solvent, so as to dissociate the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex into 1,4-bis(4-phenoxybenzoyl)benzene; and, - recovering the 1,4-bis(4-phenoxybenzoyl)benzene. - reacting terephthaloyl chloride with diphenyl ether in the presence of a Lewis acid, so as to obtain a product mixture comprising 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex, wherein the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex is, at least partly, in the form of a precipitate; - carrying out a solid/liquid separation of the product mixture to obtain a cake comprising the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex precipitate; - putting the cake in contact with a decomplexing solvent, wherein the decomplexing solvent is a protic solvent, so as to dissociate the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex into 1,4-bis(4-phenoxybenzoyl)benzene; and, - recovering the 1,4-bis(4-phenoxybenzoyl)benzene.
A method for detecting in a sample a 16S rRNA of A. vaginae or a gene encoding a 16S rRNA of A. vaginae, comprising the steps of: a. contacting a sample suspected of containing an Atopobium vaginae bacterium with at least two amplification oligomers, wherein a first amplification oligomer is about 90% or more identical to SEQ ID NO:2, and wherein a second amplification oligomer comprises a target hybridizing sequence that is about 90% or more identical to SEQ ID NO:27, and wherein said first and second amplification oligomers are configured to specifically hybridize to a target sequence within a 16S rRNA of A. vaginae or a gene encoding a 16S rRNA of A. vaginae; b. performing an in vitro nucleic acid amplification reaction wherein any target nucleic acid present in said sample is used as a template for generating an amplification product; and c. contacting said in vitro nucleic acid amplification reaction with a detection probe oligomer, a detection probe oligomer for real-time detection, a detection probe oligomer for taqman detection, a fluorescently labeled detection probe oligomer, or an acridinium ester labeled detection probe oligomer and providing conditions for a detection reaction to determine the presence or absence of an amplification product. a. contacting a sample suspected of containing an Atopobium vaginae bacterium with at least two amplification oligomers, wherein a first amplification oligomer is about 90% or more identical to SEQ ID NO:2, and wherein a second amplification oligomer comprises a target hybridizing sequence that is about 90% or more identical to SEQ ID NO:27, and wherein said first and second amplification oligomers are configured to specifically hybridize to a target sequence within a 16S rRNA of A. vaginae or a gene encoding a 16S rRNA of A. vaginae; b. performing an in vitro nucleic acid amplification reaction wherein any target nucleic acid present in said sample is used as a template for generating an amplification product; and c. contacting said in vitro nucleic acid amplification reaction with a detection probe oligomer, a detection probe oligomer for real-time detection, a detection probe oligomer for taqman detection, a fluorescently labeled detection probe oligomer, or an acridinium ester labeled detection probe oligomer and providing conditions for a detection reaction to determine the presence or absence of an amplification product.
Fitting for corner cabinets, in particular for kitchen corner cabinets, comprising an interior which is accessible by a corner cabinet door on a front side and which is substantially rectangular in horizontal section, the fitting consisting of at least one support which can be supported in a stationary manner in the interior of the corner cabinet and is intended for mounting at least one one-part shelf of a basic shape which is similar to a semicircle, the support having at least one guide member which supports the shelf in an articulated manner and transfers the shelf, on a predetermined movement path, from an inner position in the interior of the corner cabinet into an outer position that is substantially located in front of the door opening of the corner cabinet, which guide member is articulated to the bottom side of the shelf by means of a guide member articulated shaft and can be pivotally articulated to a corner cabinet part, in particular to a side-wall part, by means of a support fitting, a pull-in device being associated with the shelf and the guide member thereof, which pull-in device is intended for automatically pulling the shelf and the guide member into the interior of the corner cabinet, from a definable intermediate pivot position of the shelf, during a closing movement, characterised in that the pull-in device is supported solely on the guide member or solely on the shelf using a articulated shaft which is coaxially aligned with the guide member articulated shaft on the bottom side of the shelf, and said pull-in device has an actuator which is movable relative to the guide member and interacts with a driver provided on the shelf or on the guide member.
Method for determining a reference focal position of a laser beam of a laser installation for a workpiece processing process, having the steps of: a. producing at least two incisions (21, 22) with the laser beam of the laser installation in a plate-like member, wherein different focal positions are set for the at least two incisions (21, 22), characterized by b. irradiating the plate-like member with the laser beam of the laser installation at a lower laser power than in the previous step, however at a sufficiently high power such that process radiation and/or reflected laser radiation is/are generated; c. detecting edges (26, 27) of the incisions (21, 22) by one or more parameters relating to the irradiation of the plate-like member being detected; d. establishing the width (b) of the incisions (21, 22) using the parameter(s) detected; e. establishing as a reference focal position the focal position at which the incision with the smallest width (b) was produced. a. producing at least two incisions (21, 22) with the laser beam of the laser installation in a plate-like member, wherein different focal positions are set for the at least two incisions (21, 22), characterized by b. irradiating the plate-like member with the laser beam of the laser installation at a lower laser power than in the previous step, however at a sufficiently high power such that process radiation and/or reflected laser radiation is/are generated; c. detecting edges (26, 27) of the incisions (21, 22) by one or more parameters relating to the irradiation of the plate-like member being detected; d. establishing the width (b) of the incisions (21, 22) using the parameter(s) detected; e. establishing as a reference focal position the focal position at which the incision with the smallest width (b) was produced.
Spintronic terahertz emitter comprising: - at least one first, magnetic layer, - at least one second layer, - means for producing a magnetization in the first layer, - wherein the first layer is adapted to drive, upon incidence of a femtosecond laser pulse on the first layer in a direction perpendicular to the plane of the first layer, a spin current (j s) from the first layer into the second layer, - wherein the second layer is adapted to convert the spin current (j s) into a transverse charge current (j c) in a direction perpendicular to the magnetization of the first layer, the transverse charge current (j c) emitting terahertz radiation, - wherein the emitted terahertz radiation is linearly polarized, and wherein the electric field component of the linearly polarized terahertz radiation lies in a plane that is perpendicular to the magnetization of the first layer, characterized by means (41-44, 51-52, 61-64, 80-84, 90, 100, 12) for modulating the magnetization in the first layer in the kilohertz, megahertz, or gigahertz range, wherein modulation of the magnetization in the first layer causes modulation of the linear polarization of the terahertz radiation. - at least one first, magnetic layer, - at least one second layer, - means for producing a magnetization in the first layer, - wherein the first layer is adapted to drive, upon incidence of a femtosecond laser pulse on the first layer in a direction perpendicular to the plane of the first layer, a spin current (j s) from the first layer into the second layer, - wherein the second layer is adapted to convert the spin current (j s) into a transverse charge current (j c) in a direction perpendicular to the magnetization of the first layer, the transverse charge current (j c) emitting terahertz radiation, - wherein the emitted terahertz radiation is linearly polarized, and wherein the electric field component of the linearly polarized terahertz radiation lies in a plane that is perpendicular to the magnetization of the first layer,
A battery cell comprising: two or more electrode groups (210/220) having a structure in which electrodes including a positive electrode, a negative electrode, and a separator interposed between the positive electrode and the negative electrode are stacked, wherein each of the electrode groups includes an electrode tab junction (211/221) on one side and is electrically connected to an electrode lead drawn to an outside of a battery case via a conductive connecting member (230/240), wherein the electrode groups (210/220) are composed of a first electrode group and a second electrode group, and the first electrode group and the second electrode group are arranged symmetrically with respect to the electrode lead, wherein the structure includes a first welding junction (231/241) formed between one end of the conductive connecting member (230/240) and the electrode tab junction (211/221) and a second welding junction (232/242) formed between the other end of the conductive connecting member (230/240) and the electrode lead, and wherein each conductive connecting member (230/240) is made of a metal strip, and has a bent part comprising a vertical cross sectional shape of a circular arc bent in a direction toward the electrode groups and. two or more electrode groups (210/220) having a structure in which electrodes including a positive electrode, a negative electrode, and a separator interposed between the positive electrode and the negative electrode are stacked, wherein each of the electrode groups includes an electrode tab junction (211/221) on one side and is electrically connected to an electrode lead drawn to an outside of a battery case via a conductive connecting member (230/240), wherein the electrode groups (210/220) are composed of a first electrode group and a second electrode group, and the first electrode group and the second electrode group are arranged symmetrically with respect to the electrode lead, wherein the structure includes a first welding junction (231/241) formed between one end of the conductive connecting member (230/240) and the electrode tab junction (211/221) and a second welding junction (232/242) formed between the other end of the conductive connecting member (230/240) and the electrode lead, and wherein each conductive connecting member (230/240) is made of a metal strip, and has a bent part comprising a vertical cross sectional shape of a circular arc bent in a direction toward the electrode groups and.
A power conversion device that converts power between a DC circuit and an AC circuit, the power conversion device comprising: a plurality of leg circuits (8a, 8b, 8c) connected in parallel between a first DC terminal (Np) and a second DC terminal (Nn) and electrically connected to the AC circuit, each of the plurality of leg circuits (8a, 8b, 8c) including: at least one first converter cell (6c, 6d); and a plurality of second converter cells (6a, 6b) other than the at least one first converter cell (6c, 6d), each of the at least one first converter cell (6c, 6d) and the plurality of second converter cells (6a, 6b) including a capacitor and a plurality of semiconductor switching elements (1a, 1b), a first control signal (Gp2, Gn2) that controls switching of each of the semiconductor switching elements included in the at least one first converter cell (6c, 6d) being higher in frequency than a second control signal (Gp, Gn) that controls switching of each of the semiconductor switching elements included in each of the plurality of second converter cells (6a, 6b), wherein the first control signal (Gp2, Gn2) and the second control signal (Gp, Gn) are pulse width modulation signals. a plurality of leg circuits (8a, 8b, 8c) connected in parallel between a first DC terminal (Np) and a second DC terminal (Nn) and electrically connected to the AC circuit, each of the plurality of leg circuits (8a, 8b, 8c) including: at least one first converter cell (6c, 6d); and a plurality of second converter cells (6a, 6b) other than the at least one first converter cell (6c, 6d), at least one first converter cell (6c, 6d); and a plurality of second converter cells (6a, 6b) other than the at least one first converter cell (6c, 6d), each of the at least one first converter cell (6c, 6d) and the plurality of second converter cells (6a, 6b) including a capacitor and a plurality of semiconductor switching elements (1a, 1b), a first control signal (Gp2, Gn2) that controls switching of each of the semiconductor switching elements included in the at least one first converter cell (6c, 6d) being higher in frequency than a second control signal (Gp, Gn) that controls switching of each of the semiconductor switching elements included in each of the plurality of second converter cells (6a, 6b), wherein the first control signal (Gp2, Gn2) and the second control signal (Gp, Gn) are pulse width modulation signals.