mhurhangee/ep-ind-claims huggingface dataset:
A crystalline hydrochloride salt of a compound of formula (I-A): wherein the crystalline hydrochloride salt is characterized by an X-ray powder diffraction pattern comprising peaks at the following diffraction angles (2θ): 15.8° ± 0.2°, 22.8° ± 0.2°, and 26.0° ± 0.2°.
A system for transmitting location dependent data, comprising: a plurality of antennas; a transmitter coupled to said plurality of antennas, wherein the plurality of antennas is an antenna array; and a processor configured to determine a plurality of location dependent parts of said location dependent data, each of said plurality of location dependent parts corresponding to a different geographical region (8a-g, 25), and whereby the processor is configured to use said transmitter to transmit each of at least two of said plurality of location dependent parts to a respective different target location (9a-g, 23) in the different geographical region (8a-g, 25) corresponding to the respective location dependent part over said antenna array using beamforming, wherein each of said at least two of said plurality of location dependent parts is associated with a different reference location (9a-g, 21) and the distance between a target location (9a-g, 23) and a reference location (9a-g, 21) associated with a location dependent part transmitted to said target location (9a-g, 23) is smaller than a predetermined threshold. a plurality of antennas; a transmitter coupled to said plurality of antennas, wherein the plurality of antennas is an antenna array; and a processor configured to determine a plurality of location dependent parts of said location dependent data, each of said plurality of location dependent parts corresponding to a different geographical region (8a-g, 25), and whereby the processor is configured to use said transmitter to transmit each of at least two of said plurality of location dependent parts to a respective different target location (9a-g, 23) in the different geographical region (8a-g, 25) corresponding to the respective location dependent part over said antenna array using beamforming, wherein each of said at least two of said plurality of location dependent parts is associated with a different reference location (9a-g, 21) and the distance between a target location (9a-g, 23) and a reference location (9a-g, 21) associated with a location dependent part transmitted to said target location (9a-g, 23) is smaller than a predetermined threshold.
A method for wirelessly transmitting charging power to a wireless power receiver by a wireless power transmitter, the method comprising: periodically applying a first detection power with a first cycle to a resonator of the wireless power transmitter, characterized in that the first detection power has a power level for detecting a load change; periodically applying a second detection power with a second cycle to the resonator, wherein the second cycle is greater than the first cycle, wherein the second detection power has a power level for driving the wireless power receiver; detecting the load change while applying the first detection power, wherein the load change is caused by placement of the wireless power receiver within a charging area of the wireless power transmitter; stopping the applying of the first detection power and continuously applying a driving power for driving the wireless power receiver to the resonator; and receiving, through a communication unit of the wireless power transmitter, a search signal being transmitted from the wireless power receiver based on the driving power. periodically applying a first detection power with a first cycle to a resonator of the wireless power transmitter, characterized in that the first detection power has a power level for detecting a load change; periodically applying a second detection power with a second cycle to the resonator, wherein the second cycle is greater than the first cycle, wherein the second detection power has a power level for driving the wireless power receiver; detecting the load change while applying the first detection power, wherein the load change is caused by placement of the wireless power receiver within a charging area of the wireless power transmitter; stopping the applying of the first detection power and continuously applying a driving power for driving the wireless power receiver to the resonator; and receiving, through a communication unit of the wireless power transmitter, a search signal being transmitted from the wireless power receiver based on the driving power. detecting the load change while applying the first detection power, wherein the load change is caused by placement of the wireless power receiver within a charging area of the wireless power transmitter; stopping the applying of the first detection power and continuously applying a driving power for driving the wireless power receiver to the resonator; and receiving, through a communication unit of the wireless power transmitter, a search signal being transmitted from the wireless power receiver based on the driving power.
A mobile terminal, comprising: a display screen assembly; and a middle frame, comprising a frame body and a light transmission part located on top of the frame body, wherein the frame body comprises a bottom frame body and a lining plate arranged opposite to each other, and the light transmission part covers the lining plate, wherein the lining plate comprises a second receiving block, the light transmission part comprises a recess, and the second receiving block protrudes beyond a side of the lining plate facing away from the bottom frame body and is received in the recess. a display screen assembly; and a middle frame, comprising a frame body and a light transmission part located on top of the frame body, wherein the frame body comprises a bottom frame body and a lining plate arranged opposite to each other, and the light transmission part covers the lining plate, wherein the lining plate comprises a second receiving block, the light transmission part comprises a recess, and the second receiving block protrudes beyond a side of the lining plate facing away from the bottom frame body and is received in the recess.
A method of allocating control periods for axes in a PLC positioning system, wherein the method comprises dividing the axes into a first axis group having a first control period and a second axis group having a second control period and allocating different control periods for different axes; characterized in, that the method further comprises: when position control calculation of the first axis group is requested during position control calculation of the second axis group, performing the position control calculation of the first axis group through task switching; and after completing the position control calculation of the first axis group, performing the position control calculation of the second axis group through task switching. when position control calculation of the first axis group is requested during position control calculation of the second axis group, performing the position control calculation of the first axis group through task switching; and after completing the position control calculation of the first axis group, performing the position control calculation of the second axis group through task switching.
A safety instrumented system which is established in a plant and which stops an integrated industrial system (1, 2) in a safe state if an abnormality has occurred in the integrated industrial system (1, 2), the safety instrumented system comprising: a safety controller (31a, 31b) configured to execute safety control logic for implementing a safety control; and an engineering terminal usable for creating programs to be executed by the safety controller (31a, 31b) being installed in the safety instrumented system, wherein the safety controller (31a, 31b) comprises: a defender configured to perform a countermeasure of restricting at least a part of functions of the safety controller (31a, 31b), based on a detection result of a detector which detects a cyber-attack from at least one of inside and outside to the integrated industrial system (1, 2), wherein, if the detector detects the cyber-attack to the safety controller (31a, 31b), the defender is configured to perform a countermeasure of restricting a change of application programs used by the safety controller (31a, 31b), and restricting an execution of a control command input from outside of the integrated industrial system (1, 2), and wherein, if the detector detects the cyber-attack to the engineering terminal, the defender is further configured to perform a countermeasure of stopping all communication functions of the engineering terminal and the safety controller (31a, 31b). a safety controller (31a, 31b) configured to execute safety control logic for implementing a safety control; and an engineering terminal usable for creating programs to be executed by the safety controller (31a, 31b) being installed in the safety instrumented system, wherein the safety controller (31a, 31b) comprises: a defender configured to perform a countermeasure of restricting at least a part of functions of the safety controller (31a, 31b), based on a detection result of a detector which detects a cyber-attack from at least one of inside and outside to the integrated industrial system (1, 2), wherein, if the detector detects the cyber-attack to the safety controller (31a, 31b), the defender is configured to perform a countermeasure of restricting a change of application programs used by the safety controller (31a, 31b), and restricting an execution of a control command input from outside of the integrated industrial system (1, 2), and wherein, if the detector detects the cyber-attack to the engineering terminal, the defender is further configured to perform a countermeasure of stopping all communication functions of the engineering terminal and the safety controller (31a, 31b).
Bearing device for lifting and transporting loads including a hook, a housing wherein the hook is pivotally mounted, and a latch and release mechanism (41, 42, 43) placed inside the housing and for locking the hook in a closed position and for releasing said hook in an open position, the latch and release mechanism including a pivot latch provided with a lower cavity shaped to receive an upper end of the hook, a lever cooperating with the latch and a locking cam for actuating the lever, characterised in that the lever is pivotally mounted in the housing and includes a first roller at a first end and a second roller at a second end opposite the first end, in that the latch includes an upper cavity wherein the first roller may rest and roll, in that the locking cam is provided with at least one locking arm whereon the second roller may rest and roll, and in that a rotation of the locking cam in one direction produces a tilting of the lever in the other direction, releasing the first roller from the latch, and a pivoting of the latch under the effect of the hook until the end of said hook is released from the lower cavity of said latch.
A power network comprising: a plurality of zones (110, 140) each including: a plurality of measurement devices (128, 158) structured to measure electrical characteristics of the corresponding zone, a zone controller (130, 160) structured to receive measurements from the plurality of measurement devices, a distributed energy resource (115, 116, 145, 146), DER, and a load (112, 113, 114, 142, 143, 144); wherein each zone controller is structured to receive a set of local measurements from the plurality of measurement devices of the corresponding zone, calculate a sensitivity matrix using the received set of local measurements, determine whether a voltage violation has occurred in the corresponding zone, determine a DER set point using the received set of local measurements in response to determining the voltage violation has occurred in the corresponding zone, the DER set point being determined using the sensitivity matrix, and transmit the DER set point to the DER, and wherein each zone controller does not use measurements other than the set of local measurements for calculating the sensitivity matrix, and wherein the calculated sensitivity matrix captures the mutual effects of other zones of the plurality of zones. a plurality of zones (110, 140) each including: a plurality of measurement devices (128, 158) structured to measure electrical characteristics of the corresponding zone, a zone controller (130, 160) structured to receive measurements from the plurality of measurement devices, a distributed energy resource (115, 116, 145, 146), DER, and a load (112, 113, 114, 142, 143, 144); a plurality of measurement devices (128, 158) structured to measure electrical characteristics of the corresponding zone, a zone controller (130, 160) structured to receive measurements from the plurality of measurement devices, a distributed energy resource (115, 116, 145, 146), DER, and a load (112, 113, 114, 142, 143, 144); wherein each zone controller is structured to receive a set of local measurements from the plurality of measurement devices of the corresponding zone, calculate a sensitivity matrix using the received set of local measurements, determine whether a voltage violation has occurred in the corresponding zone, determine a DER set point using the received set of local measurements in response to determining the voltage violation has occurred in the corresponding zone, the DER set point being determined using the sensitivity matrix, and transmit the DER set point to the DER, and wherein each zone controller does not use measurements other than the set of local measurements for calculating the sensitivity matrix, and wherein the calculated sensitivity matrix captures the mutual effects of other zones of the plurality of zones.
An ink composition comprising 0.01 to 5% by weight of polyether-modified silicone having the average compositional formula, 0.01 to 5% by weight of polyether-modified silicone having the average compositional formula, water, water-soluble organic solvent, and colorant, said polyether-modified silicone having the average compositional formula: wherein R 1 is hydrogen, alkyl group of 1 to 4 carbon atoms or acetyl group, m1 is an integer of 0 or more, n1 is an integer of at least 1, m1+n1 is an integer of 1 to 6, a1×n1 is an integer of 2 to 20, b1×n1 is an integer of 0 to 100, and units and may be arranged randomly or blockwise, said polyether-modified silicone having the average compositional formula: wherein R 2 is hydrogen, alkyl group of 1 to 4 carbon atoms or acetyl group, m2 is an integer of at least 1, n2 is an integer of at least 1, m2+n2 is an integer of 15 to 40, a2×n2 is an integer of 5 to 100, b2×n2 is an integer of 20 to 100, b2 is an integer of 7 to 30 and units and may be arranged randomly or blockwise.
Multimeter with electronic overcurrent protection, the measuring circuits of which for current, voltage and resistance can optionally be electrically connected to the two probe tips, wherein an electrically actuable mechanism (2, 3) is provided for interrupting the electric circuit in the event of overcurrent, wherein a fast-switching solid state relay and a mechanical relay, as the electrically actuable mechanisms (2, 3), and an inductor for decelerating a current increase, and a measuring resistor, are all connected in series.
A preparation method of an epoxy resin electromagnetic wave-absorbing composite material, comprising: heating epoxy resin to temperature T1, adding carbon black, and then ultrasonically dispersing them for 30~60 minutes; to obtain a mixture of the epoxy resin and the carbon black, wherein T1 is 50°C~70°C; heating the mixture of the epoxy resin and the carbon black to temperature T2, adding a curing agent, and stirring and dissolving them to obtain a mixture of the epoxy resin, the carbon black, and the curing agent, wherein T2 is 100°C~120°C; and adding surface-treated hollow glass microbeads into the mixture of the epoxy resin, the carbon black, and the curing agent, and curing them to obtain the epoxy resin electromagnetic wave-absorbing composite material, the preparation method further comprises: adding glacial acetic acid into an ethanol-water mixed solution to adjust pH, then adding a silane coupling agent into them to obtain a silane coupling agent solution; and further adding hollow glass microbeads into the silane coupling agent solution to obtain a hollow glass microbeads solution; heating the hollow glass microbeads solution to 80°C~100°C, stirring, filtering, washing, and then drying the hollow glass microbeads solution in the vacuum circumstance to obtain the surface-treated hollow glass microbeads. heating epoxy resin to temperature T1, adding carbon black, and then ultrasonically dispersing them for 30~60 minutes; to obtain a mixture of the epoxy resin and the carbon black, wherein T1 is 50°C~70°C; heating the mixture of the epoxy resin and the carbon black to temperature T2, adding a curing agent, and stirring and dissolving them to obtain a mixture of the epoxy resin, the carbon black, and the curing agent, wherein T2 is 100°C~120°C; and adding surface-treated hollow glass microbeads into the mixture of the epoxy resin, the carbon black, and the curing agent, and curing them to obtain the epoxy resin electromagnetic wave-absorbing composite material, the preparation method further comprises: adding glacial acetic acid into an ethanol-water mixed solution to adjust pH, then adding a silane coupling agent into them to obtain a silane coupling agent solution; and further adding hollow glass microbeads into the silane coupling agent solution to obtain a hollow glass microbeads solution; heating the hollow glass microbeads solution to 80°C~100°C, stirring, filtering, washing, and then drying the hollow glass microbeads solution in the vacuum circumstance to obtain the surface-treated hollow glass microbeads.
Hinge for a movable furniture part, in particular a door or flap, fastened to a body of a piece of furniture, the hinge having a first fastening part which is attachable to the body and which is connected pivotably by a joint mechanism to a second fastening part attachable to the movable furniture part, the joint mechanism comprising articulated levers (4 to 7) mounted by axes of articulation, and an additional lever being provided which is pivotably mounted about an axis separate from the articulation axes, which lever during a complete appropriate pivoting movement of the hinge is temporarily coupled to a guide portion of the hinge, the additional lever acting on a damper arrangement of the hinge or on an actuator of the hinge, and the actuator being designed as an inductively operating electric motor, as a hydraulic or pneumatic actuator, as a cylinder, as an electrochemical or electromechanical actuator or as a piezo actuator, wherein in particular an electric motor can be operated or controlled by the interaction of the additional lever with the guide portion, characterised in that the guide portion comprises a guiding groove which is designed for coupling temporarily with an engagement section of the additional lever and in that the guide portion arranged on a guide lever is mounted between two articulation axes of the hinge.
A method in an access terminal for providing feedback for power control in a wireless communication system, comprising: determining a combined power amplifier headroom and interference value for communication with an access point based on PA headroom in the access terminal and interference caused by the access terminal; and transmitting the combined value to the access point determining a combined power amplifier headroom and interference value for communication with an access point based on PA headroom in the access terminal and interference caused by the access terminal; and transmitting the combined value to the access point
Driver's cabin for a vehicle, having - a cabin frame with a forwardly directed front opening and a roof region, and having - a two-part front window with an upper window and a lower window, wherein the upper window and the lower window can move into different positions, specifically into - a normal position in which the upper window and the lower window cover the front opening, - a stowed position in which the upper window and/or the lower window are disposed in the roof region and the front opening is at least partially, in particular fully, opened, and characterised by - a rain cover position in which the upper window and/or the lower window is pushed forwards relative to the stowed position substantially horizontally by a specific distance. - a cabin frame with a forwardly directed front opening and a roof region, and having - a two-part front window with an upper window and a lower window, wherein the upper window and the lower window can move into different positions, specifically into - a normal position in which the upper window and the lower window cover the front opening, - a stowed position in which the upper window and/or the lower window are disposed in the roof region and the front opening is at least partially, in particular fully, opened, and characterised by - a rain cover position in which the upper window and/or the lower window is pushed forwards relative to the stowed position substantially horizontally by a specific distance.
Refrigeration appliance, in particular domestic refrigeration appliance, with a height-adjustable refrigerated goods shelf, in which the refrigerated goods shelf has a crank lever which can be moved in a reciprocating manner and a ratchet mechanism for converting a reciprocal movement of the crank lever into a height adjustment of the refrigerated goods shelf, characterised in that a reciprocal movement of the crank lever between a centre position and a first end position can drive an upward movement of the refrigerated goods shelf and a reciprocal movement of the crank lever between the centre position and a second end position opposite to the first end position can drive a downward movement of the refrigerated goods shelf, and the ratchet mechanism is designed to translate a movement of the crank lever from the centre position to one of the end positions into a height adjustment of the refrigerated goods shelf and not to transfer a movement of the crank lever from the end position to the centre position onto the refrigerated goods shelf.
A method of selecting a cardiomyocyte from a cardiomyocyte-containing cell mixture without genetic alteration of the cardiomyocyte, wherein said method comprises a step of labeling the cardiomyocyte-containing cell mixture with a mitochondrial indicator and a step of measuring the content of cellular mitochondria and/or the mitochondrial transmembrane potential of the cell, a step of selecting a cell containing a higher amount of mitochondria and/or a higher mitochondrial transmembrane potential than any other types of cells as the cardiomyocyte, wherein said cell mixture is derived from a whole heart or from a cell having the ability to differentiate to a cardiomyocyte, wherein said cell having the ability to differentiate to a cardiomyocyte is selected from the group consisting of a stem cell, a progenitor cell and a non-human egg cell. a step of labeling the cardiomyocyte-containing cell mixture with a mitochondrial indicator and a step of measuring the content of cellular mitochondria and/or the mitochondrial transmembrane potential of the cell, a step of selecting a cell containing a higher amount of mitochondria and/or a higher mitochondrial transmembrane potential than any other types of cells as the cardiomyocyte,