mhurhangee/ep-ind-claims huggingface dataset:
A refrigeration cycle apparatus, comprising: a refrigerant circuit having a compressor, a condenser, an expansion device, an evaporator, and an accumulator that are connected by a pipe, the accumulator including a vertical cylindrical vessel; and a liquid level detection device installed in the vessel of the accumulator and configured to detect a liquid level position of liquid refrigerant stored in the vessel, wherein the liquid level detection device comprises: a first plate (202Ba, 203, 205) formed in a plate shape; and a second plate (202Bb, 204, 206) formed in a plate shape and disposed to face the first plate (202Ba, 203, 205), characterized in that the vessel includes: a vessel main body; an inlet pipe connected to an upper surface portion of the vessel main body and allowing refrigerant to flow in through the inlet pipe; and an outlet pipe connected to the upper surface portion of the vessel main body and allowing the refrigerant that is present inside the vessel main body to flow out through the outlet pipe, and the inlet pipe being configured in that the refrigerant including liquid droplets having flowed into the vessel main body from the inlet pipe flows while swirling along the wall surface of the vessel main body; the first plate is disposed in such a manner that a surface opposite to a surface facing the second plate is orthogonal to a flow direction of the refrigerant including liquid droplets around the first plate flowing through the inlet pipe in the vessel while swirling along the wall surface of the vessel main body a refrigerant circuit having a compressor, a condenser, an expansion device, an evaporator, and an accumulator that are connected by a pipe, the accumulator including a vertical cylindrical vessel; and a liquid level detection device installed in the vessel of the accumulator and configured to detect a liquid level position of liquid refrigerant stored in the vessel, a first plate (202Ba, 203, 205) formed in a plate shape; and a second plate (202Bb, 204, 206) formed in a plate shape and disposed to face the first plate (202Ba, 203, 205), a vessel main body; an inlet pipe connected to an upper surface portion of the vessel main body and allowing refrigerant to flow in through the inlet pipe; and an outlet pipe connected to the upper surface portion of the vessel main body and allowing the refrigerant that is present inside the vessel main body to flow out through the outlet pipe, and the inlet pipe being configured in that the refrigerant including liquid droplets having flowed into the vessel main body from the inlet pipe flows while swirling along the wall surface of the vessel main body; the first plate is disposed in such a manner that a surface opposite to a surface facing the second plate is orthogonal to a flow direction of the refrigerant including liquid droplets around the first plate flowing through the inlet pipe in the vessel while swirling along the wall surface of the vessel main body
Method for regulating the speed of an electric motor for driving a constituent compressor of an air-conditioning circuit of a motor vehicle, the motor being supplied with electrical energy by an electrical energy reserve of the vehicle of which the use is regulated by a management unit, the implementation of the motor being regulated as a function of control commands generated by a control module according to the needs of the vehicle, the method comprising the following operations: -) monitoring by the management unit of the voltage and/or of the current provided by the electrical energy reserve with regard to a nominal voltage threshold, and in the event of detection by the management unit of a drop in voltage and/or current, -) generation by the management unit of an initial setpoint relating to an authorized consumption of electrical energy by the motor and deduction of a maximum authorized speed of the motor from the initial setpoint, the speed at which the compressor is driven by the motor is then reduced so as to limit its consumption of electrical energy, characterized in that the method comprises the following operations: -) monitoring by a control means of a state of overloading of the compressor, and in the event of overloading of the compressor generation by the control means of at least one corrected setpoint (C1, C2) relating to a speed of the motor preventing a state of overloading of the compressor, -) in accordance with a given initial setpoint and with prevention of a state of overloading of the compressor, the corrected setpoint varies according to the control commands in a range of speeds. -) monitoring by the management unit of the voltage and/or of the current provided by the electrical energy reserve with regard to a nominal voltage threshold, and in the event of detection by the management unit of a drop in voltage and/or current, -) generation by the management unit of an initial setpoint relating to an authorized consumption of electrical energy by the motor and deduction of a maximum authorized speed of the motor from the initial setpoint, the speed at which the compressor is driven by the motor is then reduced so as to limit its consumption of electrical energy, characterized in that the method comprises the following operations: -) monitoring by a control means of a state of overloading of the compressor, and in the event of overloading of the compressor generation by the control means of at least one corrected setpoint (C1, C2) relating to a speed of the motor preventing a state of overloading of the compressor, -) in accordance with a given initial setpoint and with prevention of a state of overloading of the compressor, the corrected setpoint varies according to the control commands in a range of speeds.
A system, comprising: a solid feed fuel pump, comprising: a solid feed flow path configured to route a solid fuel flow from an inlet to an outlet; an actuated valve disposed in the outlet, and characterised by comprising a controller configured to provide active control based on the at least one sensed feedback, wherein the actuated valve is configured to adjust a compaction of the solid fuel flow in the outlet in response to the active control feedback of the controller. a solid feed fuel pump, comprising: a solid feed flow path configured to route a solid fuel flow from an inlet to an outlet; an actuated valve disposed in the outlet, and characterised by comprising a controller configured to provide active control based on the at least one sensed feedback, wherein the actuated valve is configured to adjust a compaction of the solid fuel flow in the outlet in response to the active control feedback of the controller. a solid feed flow path configured to route a solid fuel flow from an inlet to an outlet; an actuated valve disposed in the outlet, and characterised by comprising a controller configured to provide active control based on the at least one sensed feedback, wherein the actuated valve is configured to adjust a compaction of the solid fuel flow in the outlet in response to the active control feedback of the controller.
A device for sensing the change of feed bobbin for a yarn fed to a textile machine and originating from a first bobbin or a second bobbin connected together in head-tail manner, comprising a support body defining a passage section for a yarn, yarn sensing means (8, 9) comprising at least one first sensor and one second sensor which respectively define a first sensing zone and a second sensing zone positioned at said passage section, a control unit operatively associated with said sensing means (8, 9) to control the feed of said yarn to the textile machine, said sensing means (8, 9) being arranged to generate corresponding first and second presence signals when the yarn unwound from the first bobbin or from the second bobbin passes through said first sensing zone or second sensing zone, said control unit being arranged to receive said first and/or second presence signal as input and being also arranged to generate at least one output signal indicating whether said yarn originates from said first bobbin or from said second bobbin on the basis of said first or second presence signal; said first sensor and second sensor comprising respective light emitter elements to illuminate said yarn in presence to said first sensor or said second sensor, and at least one receiver element; said light emitter elements being activatable in turn to illuminate said yarn exclusively in presence to said first sensor or said second sensor in order to generate a succession of first and second presence signals; characterised in that said control unit is adapted to generate a change-over signal representative of the change in origin of said yarn from said first bobbin to said second bobbin when said first presence signals terminate and said second presence signals commence.
A method for navigation of a gaming application, comprising: receiving, from a client device associated with a user, selection of a video recording of game play of a player for said gaming application; streaming said video recording to said client device, wherein said video recording is associated with a snapshot image captured at a first point in said game play of said player; receiving, from said client device, selection of a jump point in said recorded game play; initiating an instance of said gaming application based on said snapshot image, wherein said instance instantiates a jump game play; accessing a sequence of input commands associated with said snapshot image and used to direct said game play; generating at said instance of said gaming application a plurality of image frames based on said sequence of input commands for rendering at said client device, wherein said plurality of image frames replays said game play from said first point to said jump point; and handling input commands from said client device at said instance of said gaming application beginning from said jump point, characterized in that the method further comprises: blocking execution of input commands received from said client device at said instance of said gaming application during replay of said game play using said sequence of input commands, wherein said plurality of image frames replays said game play beginning from a first image frame corresponding to a first video frame of said first point to a second image frame corresponding to a second video frame of said jump point. receiving, from a client device associated with a user, selection of a video recording of game play of a player for said gaming application; streaming said video recording to said client device, wherein said video recording is associated with a snapshot image captured at a first point in said game play of said player; receiving, from said client device, selection of a jump point in said recorded game play; initiating an instance of said gaming application based on said snapshot image, wherein said instance instantiates a jump game play; accessing a sequence of input commands associated with said snapshot image and used to direct said game play; generating at said instance of said gaming application a plurality of image frames based on said sequence of input commands for rendering at said client device, wherein said plurality of image frames replays said game play from said first point to said jump point; and handling input commands from said client device at said instance of said gaming application beginning from said jump point, characterized in that the method further comprises: blocking execution of input commands received from said client device at said instance of said gaming application during replay of said game play using said sequence of input commands, wherein said plurality of image frames replays said game play beginning from a first image frame corresponding to a first video frame of said first point to a second image frame corresponding to a second video frame of said jump point.
A splinting apparatus (100, 200, 300, 400, 700) comprising: a retaining pouch (102, 202, 302, 402, 704, 802) having a first portion (102a, 402a) containing a first precursor, a second portion (102b, 402b) containing a second precursor, and at least one sacrificial seam fluidly separating the first portion (102a, 402a) from the second portion (102b, 402b); and an expansion chamber (104, 204, 304, 804) enclosing the retaining pouch (102, 202, 302, 402, 704, 802); wherein the at least one sacrificial seam is breakable upon application of a force to the retaining pouch (102, 202, 302, 402, 704, 802) to thereby fluidly connect the first and second portions (102a, 102b, 402a, 402b) of the retaining pouch (102, 202, 302, 402, 704, 802) such that the first and second precursors mix together, and wherein mixing of the first and second precursors forms a curable expanded polymer foam, and characterised in that the expansion chamber (104, 204, 304, 804) has a volume that is about 110% of the volume of the expanded polymer foam. a retaining pouch (102, 202, 302, 402, 704, 802) having a first portion (102a, 402a) containing a first precursor, a second portion (102b, 402b) containing a second precursor, and at least one sacrificial seam fluidly separating the first portion (102a, 402a) from the second portion (102b, 402b); and an expansion chamber (104, 204, 304, 804) enclosing the retaining pouch (102, 202, 302, 402, 704, 802); wherein the at least one sacrificial seam is breakable upon application of a force to the retaining pouch (102, 202, 302, 402, 704, 802) to thereby fluidly connect the first and second portions (102a, 102b, 402a, 402b) of the retaining pouch (102, 202, 302, 402, 704, 802) such that the first and second precursors mix together, and wherein mixing of the first and second precursors forms a curable expanded polymer foam, and characterised in that the expansion chamber (104, 204, 304, 804) has a volume that is about 110% of the volume of the expanded polymer foam.
A gear shaping machine for machining the teeth of workpieces, comprising: a spindle (11, 41) for receiving a machining tool, a device, by means of which the spindle can perform a reciprocating stroke motion, a drive, by means of which the spindle can be driven so as to rotate around its spindle axis, and an arrangement for effecting the adjustment of the stroke position of the machine, wherein upon actuation of said stroke position adjustment arrangement the axial relative position of the spindle with respect to the spindle axis is changed by means of a spindle rotation caused by the drive and the stroke position adjustment arrangement comprises a first part which, upon said actuation, is connected to the spindle for conjoint rotation, characterised in that the first part comprises an axial cut-out in which an axially movable coupling part is guided, which coupling part is connected to the first part for conjoint rotation and the movement of which coupling part creates the connection of the first part to the spindle for conjoint rotation, wherein the stroke position adjustment arrangement comprises a second part, the connection of the latter to the first part for conjoint rotation being released upon said actuation, and wherein the first and the second part are functional elements of the device by means of which the spindle can perform a reciprocating motion. a spindle (11, 41) for receiving a machining tool, a device, by means of which the spindle can perform a reciprocating stroke motion, a drive, by means of which the spindle can be driven so as to rotate around its spindle axis, and an arrangement for effecting the adjustment of the stroke position of the machine, wherein upon actuation of said stroke position adjustment arrangement the axial relative position of the spindle with respect to the spindle axis is changed by means of a spindle rotation caused by the drive and the stroke position adjustment arrangement comprises a first part which, upon said actuation, is connected to the spindle for conjoint rotation, characterised in that the first part comprises an axial cut-out in which an axially movable coupling part is guided, which coupling part is connected to the first part for conjoint rotation and the movement of which coupling part creates the connection of the first part to the spindle for conjoint rotation, wherein the stroke position adjustment arrangement comprises a second part, the connection of the latter to the first part for conjoint rotation being released upon said actuation, and wherein the first and the second part are functional elements of the device by means of which the spindle can perform a reciprocating motion.
A compound of Formula I for use in treating breast cancer, wherein Formula I is: or a stereoisomer, tautomer, solvate, or a pharmaceutically acceptable salt thereof, wherein: X is O, C, or N, with C or N optionally substituted with hydrogen, substituted or unsubstituted C 1-6 alkyl, hydroxyl-substituted alkyl, substituted or unsubstituted C 5-10 aryl, or substituted carbonyl group; Y is CH or N; Z is C or N; Z' is CH or N; R 1 is: when Z is C: hydrogen, alkoxy, perfluoroalkyl, F, Cl; when Z is N: null; and R 2 and R 3 are independently selected from hydrogen or substituted or unsubstituted C 1-6 alkyl; wherein the compound of Formula I inhibits the activity of the Bcl-2 family protein Mcl-1 and other members of the Bcl-2 family of anti-apoptotic proteins, and wherein "alkyl" refers to a hydrocarbon chain that may be a straight chain or branched chain, containing the indicated number of carbon atoms. X is O, C, or N, with C or N optionally substituted with hydrogen, substituted or unsubstituted C 1-6 alkyl, hydroxyl-substituted alkyl, substituted or unsubstituted C 5-10 aryl, or substituted carbonyl group; Y is CH or N; Z is C or N; Z' is CH or N; R 1 is: when Z is C: hydrogen, alkoxy, perfluoroalkyl, F, Cl; when Z is N: null; and R 2 and R 3 are independently selected from hydrogen or substituted or unsubstituted C 1-6 alkyl; wherein the compound of Formula I inhibits the activity of the Bcl-2 family protein Mcl-1 and other members of the Bcl-2 family of anti-apoptotic proteins, and wherein "alkyl" refers to a hydrocarbon chain that may be a straight chain or branched chain, containing the indicated number of carbon atoms.
Process for the preparation of an aromatic acid or a phenolic compound, said process comprising reacting a dienophile and a furanic compound comprising an acetal moiety in a Diels-Alders reaction to obtain an aromatic compound comprising said acetal moiety, followed by hydrolysis and oxidation of said acetal moiety into a hydroxide or carboxylate moiety to form the aromatic acid or phenolic compound, wherein said dienophile is selected from the group consisting of alkylenes, acetylenes, acrylates, maleates, fumarates, maleimides, propiolates, acetylene dicarboxylates, and benzynes and wherein said acetal moiety is bound directly to the 2-position of the furanic compound.
A method of remotely inspecting a wind turbine blade in situ, comprising: imaging a portion of a wind turbine blade with a thermal imaging camera as the blade passes through a field of view of the thermal imaging camera while the turbine is rotating and undergoing cyclic load due to gravity and variations in wind loads and when the blade has substantially reached thermal equilibrium with ambient air after sunset in order to produce thermal imaging data; analyzing the thermal imaging data to identify atypical thermal patterns that could be indicative of frictional heating within or around defects within the wind turbine blade. imaging a portion of a wind turbine blade with a thermal imaging camera as the blade passes through a field of view of the thermal imaging camera while the turbine is rotating and undergoing cyclic load due to gravity and variations in wind loads and when the blade has substantially reached thermal equilibrium with ambient air after sunset in order to produce thermal imaging data; analyzing the thermal imaging data to identify atypical thermal patterns that could be indicative of frictional heating within or around defects within the wind turbine blade.
A method for pressing a tailstock (40, 41) of a machining apparatus (1, 1A), the method comprising: setting a target pressing force for pressing the tailstock (40, 41) against a workpiece attached to a spindle in a first direction along a rotation axis (Ax) of the spindle; driving an actuator (ACT, 44) for controlling a movement of the tailstock (40, 41) and a pressing force for pressing the tailstock (40, 41) against the workpiece to move the tailstock (40, 41) in the first direction at a first speed (V 1); detecting pressing of the tailstock (40, 41) against the workpiece based on a change in an input amount into the actuator (ACT, 44) for moving the tailstock (40, 41); upon detection of the pressing, controlling the actuator (ACT, 44) to stop the movement of the tailstock (40, 41); driving the actuator (ACT, 44) to move the tailstock (40, 41) by a first distance in a second direction opposite to the first direction; characterised by: driving the actuator (ACT, 44) to move the tailstock (40, 41) in the first direction at a second speed (V 2) lower than the first speed (V 1); and controlling the actuator (ACT, 44) to stop the tailstock (40, 41), upon the input amount into the actuator (ACT, 44) becoming a value corresponding to the target pressing force while the tailstock (40, 41) is moving at the second speed (V 2). setting a target pressing force for pressing the tailstock (40, 41) against a workpiece attached to a spindle in a first direction along a rotation axis (Ax) of the spindle; driving an actuator (ACT, 44) for controlling a movement of the tailstock (40, 41) and a pressing force for pressing the tailstock (40, 41) against the workpiece to move the tailstock (40, 41) in the first direction at a first speed (V 1); detecting pressing of the tailstock (40, 41) against the workpiece based on a change in an input amount into the actuator (ACT, 44) for moving the tailstock (40, 41); upon detection of the pressing, controlling the actuator (ACT, 44) to stop the movement of the tailstock (40, 41); driving the actuator (ACT, 44) to move the tailstock (40, 41) by a first distance in a second direction opposite to the first direction; driving the actuator (ACT, 44) to move the tailstock (40, 41) in the first direction at a second speed (V 2) lower than the first speed (V 1); and controlling the actuator (ACT, 44) to stop the tailstock (40, 41), upon the input amount into the actuator (ACT, 44) becoming a value corresponding to the target pressing force while the tailstock (40, 41) is moving at the second speed (V 2).