mhurhangee/patent-ind-claim-en huggingface dataset:
A rotational coupling device , comprising: a coupling disc configured to be disposed about a shaft having a rotational axis ; an electromagnet assembly disposed on a first side of the coupling disc , the assembly including a housing ; and a conductor disposed within the housing an armature disposed on a second side of the coupling disc opposite the conductor , the coupling disc , the electromagnet assembly and the armature forming an electromagnetic circuit when current is supplied to the conductor to urge the armature towards engagement with the coupling disc ; and, characterized by an anti-rotation mechanism (32 or 102 or 112 or 132 or 146) for the electromagnet assembly including at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) configured to be mounted to an outer surface of the housing of the electromagnet assembly and aligned with at least one fixed permanent magnet (80 or 110 or 122 or 142 or 154) mounted to a fixed support structure so as to inhibit movement of the at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) and the electromagnet assembly in either rotational direction about the rotational axis . a coupling disc configured to be disposed about a shaft having a rotational axis ; an electromagnet assembly disposed on a first side of the coupling disc , the assembly including a housing ; and a conductor disposed within the housing a housing ; and a conductor disposed within the housing an armature disposed on a second side of the coupling disc opposite the conductor , the coupling disc , the electromagnet assembly and the armature forming an electromagnetic circuit when current is supplied to the conductor to urge the armature towards engagement with the coupling disc ; and, characterized by an anti-rotation mechanism (32 or 102 or 112 or 132 or 146) for the electromagnet assembly including at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) configured to be mounted to an outer surface of the housing of the electromagnet assembly and aligned with at least one fixed permanent magnet (80 or 110 or 122 or 142 or 154) mounted to a fixed support structure so as to inhibit movement of the at least one coupling permanent magnet (78 or 108 or 118 or 138 or 152) and the electromagnet assembly in either rotational direction about the rotational axis .
A negative electrode comprising: a negative electrode current collector; and a negative electrode active material layer supported by the negative electrode current collector, wherein the negative electrode active material layer contains a negative electrode active material and a trace component, the trace component is at least one element selected from the group consisting of Ti, Si, Ca, and Cr, and a content of the trace component is not less than 10 mass ppm and not more than 800 mass ppm with respect to the negative electrode active material, the negative electrode active material layer is free from Al and Fe, and the negative electrode active material layer contains a thickening agent at a content of not less than 0.3 mass% and not more than 3 mass%. a negative electrode current collector; and a negative electrode active material layer supported by the negative electrode current collector, wherein the negative electrode active material layer contains a negative electrode active material and a trace component, the trace component is at least one element selected from the group consisting of Ti, Si, Ca, and Cr, and a content of the trace component is not less than 10 mass ppm and not more than 800 mass ppm with respect to the negative electrode active material, the negative electrode active material layer is free from Al and Fe, and the negative electrode active material layer contains a thickening agent at a content of not less than 0.3 mass% and not more than 3 mass%.
A computer-implemented method , comprising: receiving, a first message from a remote terminal unit at a supervisory control and data acquisition server , wherein the first message indicates that a motion of a user has been detected; in response to receiving the first message, the supervisory control and data acquisition server starting a timer at the supervisory control and data acquisition server; determining , by the supervisory control and data acquisition server, whether a personal identification number verification and a radio-frequency identification verification of the user have succeeded before the timer expires; and in response to determining that at least one of the personal identification number verification or the radio-frequency identification verification has not succeeded before the timer expires, the supervisory control and data acquisition server disabling an enabled communication port connecting the remote terminal unit with the supervisory control and data acquisition server. receiving, a first message from a remote terminal unit at a supervisory control and data acquisition server , wherein the first message indicates that a motion of a user has been detected; in response to receiving the first message, the supervisory control and data acquisition server starting a timer at the supervisory control and data acquisition server; determining , by the supervisory control and data acquisition server, whether a personal identification number verification and a radio-frequency identification verification of the user have succeeded before the timer expires; and in response to determining that at least one of the personal identification number verification or the radio-frequency identification verification has not succeeded before the timer expires, the supervisory control and data acquisition server disabling an enabled communication port connecting the remote terminal unit with the supervisory control and data acquisition server.
A semiconductor module , comprising: - a pair of semiconductor devices connected in series with each other and having first terminals electrically connected to a first power system (BT) and a second terminal electrically connected to a second power system (M); - a heat sink ; - a first electrode electrically connected both to one of the first terminals and to one of electrodes of one of the semiconductor devices ; - an output electrode electrically connected both to the second terminal and to one of electrodes of the other one of the semiconductor devices; and - a second electrode electrically connected to the other one of the first terminals , wherein: - the other one of the electrodes of the one of the semiconductor devices is electrically connected to the output electrode , - the other one of the electrodes of the other one of the semiconductor devices is electrically connected to the second electrode , - the second electrode is connected to the heat sink via a first insulating member , - the output electrode is connected to the second electrode via a second insulating member , and - the first electrode is connected to the heat sink via the first insulating member , characterized in that an area of the first electrode and an area of the second electrode are substantially the same. - a pair of semiconductor devices connected in series with each other and having first terminals electrically connected to a first power system (BT) and a second terminal electrically connected to a second power system (M); - a heat sink ; - a first electrode electrically connected both to one of the first terminals and to one of electrodes of one of the semiconductor devices ; - an output electrode electrically connected both to the second terminal and to one of electrodes of the other one of the semiconductor devices; and - a second electrode electrically connected to the other one of the first terminals , - the other one of the electrodes of the one of the semiconductor devices is electrically connected to the output electrode , - the other one of the electrodes of the other one of the semiconductor devices is electrically connected to the second electrode , - the second electrode is connected to the heat sink via a first insulating member , - the output electrode is connected to the second electrode via a second insulating member , and - the first electrode is connected to the heat sink via the first insulating member ,
A toner cartridge for use in an image forming device , comprising: a housing having a top , a bottom , a front , and a rear positioned between a first side and a second side of the housing , the housing defining a reservoir for containing toner therein, the housing having an elongated shape extending from the first side to the second side ; an exit port in fluid communication with the reservoir; a toner delivery system for transferring toner from the reservoir out of the exit port that includes a main interface gear for providing rotational power to the toner delivery system, a portion of the main interface gear being engagable with a corresponding drive gear in the image forming device ; a projection projecting from the front of the housing spaced from exit port toward the first side of the housing , ; the projection includes a forward projecting portion that extends away from the front of the housing and a knob that extends towards the first side of the housing from the front of the forward projecting portion characterized by the exit port facing downward on the front of the housing near the first side , a portion of the main interface gear being exposed on the front of the housing near the top of the second side , the projection extending further forward than a frontmost portion of the exit port and a front of the projection being unobstructed for engaging a shutter on a developer unit when the toner cartridge is inserted into the image forming device . a housing having a top , a bottom , a front , and a rear positioned between a first side and a second side of the housing , the housing defining a reservoir for containing toner therein, the housing having an elongated shape extending from the first side to the second side ; an exit port in fluid communication with the reservoir; a toner delivery system for transferring toner from the reservoir out of the exit port that includes a main interface gear for providing rotational power to the toner delivery system, a portion of the main interface gear being engagable with a corresponding drive gear in the image forming device ; a projection projecting from the front of the housing spaced from exit port toward the first side of the housing , ; the projection includes a forward projecting portion that extends away from the front of the housing and a knob that extends towards the first side of the housing from the front of the forward projecting portion characterized by the exit port facing downward on the front of the housing near the first side , a portion of the main interface gear being exposed on the front of the housing near the top of the second side , the projection extending further forward than a frontmost portion of the exit port and a front of the projection being unobstructed for engaging a shutter on a developer unit when the toner cartridge is inserted into the image forming device .
A compound, or a salt or a hydrate or a solvate thereof, having a structure which is: wherein X is H or F or OH; Y is selected from the group consisting of a bond, -O-, -S-, -NH-,alkylene, heteroalkylene and *-C(O)NH-, wherein * represents the point of attachment to Z; and Z is a substituted or unsubstituted heterocyclic ring or ring system containing at least one endocyclic boron. X is H or F or OH; Y is selected from the group consisting of a bond, -O-, -S-, -NH-,alkylene, heteroalkylene and *-C(O)NH-, wherein * represents the point of attachment to Z; and Z is a substituted or unsubstituted heterocyclic ring or ring system containing at least one endocyclic boron.
A method of producing a tantalum sputtering target, comprising: melting tantalum raw material via electron beam melting; casting the melted tantalum into an ingot; forging and then recrystallization annealing the molten tantalum ingot at 1100-1400°C; cold forging the ingot; annealing at up to 1400°C; cold forging the ingot; annealing at up to 1400°C; cold rolling and heat treating at 900-1400°C, wherein the cold rolling is performed using a roll diameter of 500 mm or less at a speed of 10 m/min or more and provides a total reduction exceeding 80% and wherein the rolling reduction of 1 pass is 8 to 12% and the number of passes is 15 to 25. melting tantalum raw material via electron beam melting; casting the melted tantalum into an ingot; forging and then recrystallization annealing the molten tantalum ingot at 1100-1400°C; cold forging the ingot; annealing at up to 1400°C; cold forging the ingot; annealing at up to 1400°C; cold rolling and heat treating at 900-1400°C, wherein the cold rolling is performed using a roll diameter of 500 mm or less at a speed of 10 m/min or more and provides a total reduction exceeding 80% and wherein the rolling reduction of 1 pass is 8 to 12% and the number of passes is 15 to 25.
A base station configured to enter a dormancy mode, the base station comprising: a discovery signal transmitting unit configured to transmit a discovery signal including a signal for synchronization in a state of a dormancy mode, wherein the discovery signal is used to enable a cell covered by a signal of the base station to be discovered by a mobile terminal, and the mobile terminal is enabled to achieve synchronization with the base station, wherein the cell is a cell having a physical cell identifier, or the cell is a cell having a physical cell identifier within a cell group or a cell cluster, or the cell is a cell having no physical cell identifier within a cell group or a cell cluster, wherein the cell is a dormancy cell of which the base station is in the state of the dormancy mode, wherein the discovery signal comprises a primary synchronization signal, a secondary synchronization signal and a reference signal in one subframe in any of frames transmitted from the base station and the reference signal is not transmitted in every subframe, and wherein the reference signal comprises one of the following signals or a combination thereof: a common reference signal, a channel state information reference signal, a positioning reference signal and a reduced common reference signal. a discovery signal transmitting unit configured to transmit a discovery signal including a signal for synchronization in a state of a dormancy mode, wherein the discovery signal is used to enable a cell covered by a signal of the base station to be discovered by a mobile terminal, and the mobile terminal is enabled to achieve synchronization with the base station, wherein the cell is a cell having a physical cell identifier, or the cell is a cell having a physical cell identifier within a cell group or a cell cluster, or the cell is a cell having no physical cell identifier within a cell group or a cell cluster, wherein the cell is a dormancy cell of which the base station is in the state of the dormancy mode, wherein the discovery signal comprises a primary synchronization signal, a secondary synchronization signal and a reference signal in one subframe in any of frames transmitted from the base station and the reference signal is not transmitted in every subframe, and wherein the reference signal comprises one of the following signals or a combination thereof: a common reference signal, a channel state information reference signal, a positioning reference signal and a reduced common reference signal.
A composition comprising a Hedgehog pathway (HhP) inhibitor, wherein the HhP inhibitor comprises the SUBACAP ® formulation of itraconazole, or a pharmaceutically acceptable salt, stereoisomer, or active metabolite thereof, for use in treating a proliferation disorder in a subject, the SUBACAP ® formulation being a composition which is a solid dispersion wherein the itraconazole, or a pharmaceutically acceptable salt, stereoisomer, or active metabolite thereof is associated with acidic molecules, and wherein the composition is for oral administration in an effective amount to achieve a plasma trough level of at least 1,000 ng/ml of the HhP inhibitor.
A vehicle-based method of determining whether a radar backscatter return of a target object originates from a single scattering center, said vehicle including a radar system including a radar transmit element , adapted to send a radar signal towards said target object , and an antenna receive array comprising a plurality of N radar receive channels (16A, 16B, A, B, C), and adapted to receive radar signals reflected from said target object , said method comprising: a) transmitting a radar signal from said radar transmit element to said target object ; b) receiving the reflected signal of the signal transmitted in step a) from the target object at said plurality of N radar receive channels (16A, 16B, A, B, C); characterized by c) processing, for each radar receive channel (16A, 16B, A, B, C), the received signal to provide amplitude or power data in the frequency domain; d) with respect to the data in step c), for each of the N radar receive channels (16A, 16B, A, B, C), determining the frequency or frequency bin in the frequency domain which correlates to the maximum amplitude or peak power in the respective radar receive channel; e) determining the degree of variability of said frequency or frequency bin, correlating to the respective maximum amplitude or peak power, between the N radar receive channels (16A, 16B, A, B, C); f) determining if the degree of variability from step e) is above or below a threshold, and determining either that the target object is a single scattering center if the degree of variability is below said threshold or that the target object is not a single scattering center if the degree of variability is above said threshold. a) transmitting a radar signal from said radar transmit element to said target object ; b) receiving the reflected signal of the signal transmitted in step a) from the target object at said plurality of N radar receive channels (16A, 16B, A, B, C); characterized by c) processing, for each radar receive channel (16A, 16B, A, B, C), the received signal to provide amplitude or power data in the frequency domain; d) with respect to the data in step c), for each of the N radar receive channels (16A, 16B, A, B, C), determining the frequency or frequency bin in the frequency domain which correlates to the maximum amplitude or peak power in the respective radar receive channel; e) determining the degree of variability of said frequency or frequency bin, correlating to the respective maximum amplitude or peak power, between the N radar receive channels (16A, 16B, A, B, C); f) determining if the degree of variability from step e) is above or below a threshold, and determining either that the target object is a single scattering center if the degree of variability is below said threshold or that the target object is not a single scattering center if the degree of variability is above said threshold.
A maraging steel consisting of: as essential components, 0.10 mass% ≤ C ≤ 0.35 mass%, 9.0 mass% ≤ Co ≤ 20.0 mass%, 1.0 mass% ≤ (Mo + W/2) ≤ 2.0 mass%, 1.0 mass% ≤ Cr ≤ 4.0 mass%, 6.0 mass% ≤ Ni ≤ 9.4 mass%, and 1.4 mass% ≤ Al ≤ 2.0 mass%, and as optional components, Ti ≤ 0.10 mass%, S ≤ 0.0010 mass%, N ≤ 0.0020 mass%, V + Nb ≤ 0.020 mass%, B ≤ 0.0050 mass%, and Si ≤ 1.0 mass%, with the balance being Fe and inevitable impurities, wherein the following relational expression is satisfied: Parameter X ≥ 45 wherein X = 5.5[C] + 11.6[Si] - 1.4[Ni] - 5[Cr] - 1.2[Mo] + 0.7[Co] + 41.9[Al] - 7[V] - 98.4[Nb] + 3.3[B], and each element symbol with braces represents the content (by mass%) of each element. as essential components, 0.10 mass% ≤ C ≤ 0.35 mass%, 9.0 mass% ≤ Co ≤ 20.0 mass%, 1.0 mass% ≤ (Mo + W/2) ≤ 2.0 mass%, 1.0 mass% ≤ Cr ≤ 4.0 mass%, 6.0 mass% ≤ Ni ≤ 9.4 mass%, and 1.4 mass% ≤ Al ≤ 2.0 mass%, and 0.10 mass% ≤ C ≤ 0.35 mass%, 9.0 mass% ≤ Co ≤ 20.0 mass%, 1.0 mass% ≤ (Mo + W/2) ≤ 2.0 mass%, 1.0 mass% ≤ Cr ≤ 4.0 mass%, 6.0 mass% ≤ Ni ≤ 9.4 mass%, and 1.4 mass% ≤ Al ≤ 2.0 mass%, and as optional components, Ti ≤ 0.10 mass%, S ≤ 0.0010 mass%, N ≤ 0.0020 mass%, V + Nb ≤ 0.020 mass%, B ≤ 0.0050 mass%, and Si ≤ 1.0 mass%, Ti ≤ 0.10 mass%, S ≤ 0.0010 mass%, N ≤ 0.0020 mass%, V + Nb ≤ 0.020 mass%, B ≤ 0.0050 mass%, and Si ≤ 1.0 mass%, with the balance being Fe and inevitable impurities, wherein the following relational expression is satisfied: Parameter X ≥ 45 wherein X = 5.5[C] + 11.6[Si] - 1.4[Ni] - 5[Cr] - 1.2[Mo] + 0.7[Co] + 41.9[Al] - 7[V] - 98.4[Nb] + 3.3[B], and each element symbol with braces represents the content (by mass%) of each element.
A method for a primary root node, comprising: detecting a plurality of neighboring root nodes based on information received from first-hop nodes in a shared-media communication network in which the first-hop nodes are in communication with the primary root node, and subordinate nodes are in communication with the first-hop nodes using a primary network identification and a primary mesh group key in a tree-based topology; selecting a backup root node from the detected neighboring root nodes; receiving a backup network identification and a corresponding backup mesh group key from the selected backup root node; and sending a notification of the selected backup root node to the first-hop nodes along with the backup network identification and the corresponding backup mesh group key to cause the first-hop nodes to migrate to the selected backup root node using the backup network identification and the backup mesh group key when connectivity to the primary root node fails, while maintaining a subordinate state in which each first-hop node maintains a similar rank of a first-hop node in the backup root network and remains in communication with the subordinate nodes using the primary network identification and the primary mesh group key. detecting a plurality of neighboring root nodes based on information received from first-hop nodes in a shared-media communication network in which the first-hop nodes are in communication with the primary root node, and subordinate nodes are in communication with the first-hop nodes using a primary network identification and a primary mesh group key in a tree-based topology; selecting a backup root node from the detected neighboring root nodes; receiving a backup network identification and a corresponding backup mesh group key from the selected backup root node; and sending a notification of the selected backup root node to the first-hop nodes along with the backup network identification and the corresponding backup mesh group key to cause the first-hop nodes to migrate to the selected backup root node using the backup network identification and the backup mesh group key when connectivity to the primary root node fails, while maintaining a subordinate state in which each first-hop node maintains a similar rank of a first-hop node in the backup root network and remains in communication with the subordinate nodes using the primary network identification and the primary mesh group key.