mhurhangee/ep-ind-claims huggingface dataset:
An Autonomous Underwater Vehicle comprising: a generator (102, 422) including a combustion air intake port and a combustion exhaust port; a water-tight enclosure surrounding the generator; an intake valve coupling the air intake port to an outside surface of the enclosure, wherein the intake valve is configured to transport air from the outside surface of the enclosure to the air intake port when the intake valve is open; an exhaust valve coupling the exhaust port to the outside surface of the enclosure, wherein the exhaust valve is configured to transport exhaust from the exhaust port to the outside surface of the enclosure when the exhaust valve is open; and a controller configured to determine that the enclosure will submerge, and responsive to the determination, is configured to stop the generator, to close the intake valve, and to close the exhaust valve; the controller is configured to detect that the enclosure has surfaced, and responsive to the detection, is configured to open the intake valve, to open the exhaust valve, and to start the generator. a generator (102, 422) including a combustion air intake port and a combustion exhaust port; a water-tight enclosure surrounding the generator; an intake valve coupling the air intake port to an outside surface of the enclosure, wherein the intake valve is configured to transport air from the outside surface of the enclosure to the air intake port when the intake valve is open; an exhaust valve coupling the exhaust port to the outside surface of the enclosure, wherein the exhaust valve is configured to transport exhaust from the exhaust port to the outside surface of the enclosure when the exhaust valve is open; and a controller configured to determine that the enclosure will submerge, and responsive to the determination, is configured to stop the generator, to close the intake valve, and to close the exhaust valve; the controller is configured to detect that the enclosure has surfaced, and responsive to the detection, is configured to open the intake valve, to open the exhaust valve, and to start the generator.
Immobilization system of a mobile device, comprising: - at least three feet that are able to slide in respective guides, said guides being intended to be fixed to a chassis of the mobile device, - a linkage mechanism connecting the feet to one another and being intended to be fixed to the chassis of the mobile device, - an actuator that is able to act on the linkage mechanism so as to slide the feet between a position bearing against the ground, in which the immobilization system is able to immobilize the mobile device, and a retracted position, in which the immobilization system is able to free the mobility of the mobile device, characterized in that the immobilization system comprises at least one sensor configured to determine the position of the feet, said one or more sensors being connected to a control unit configured so as to control the actuator as a function of this information. - at least three feet that are able to slide in respective guides, said guides being intended to be fixed to a chassis of the mobile device, - a linkage mechanism connecting the feet to one another and being intended to be fixed to the chassis of the mobile device, - an actuator that is able to act on the linkage mechanism so as to slide the feet between a position bearing against the ground, in which the immobilization system is able to immobilize the mobile device, and a retracted position, in which the immobilization system is able to free the mobility of the mobile device,
A terminal block comprising: a housing body attachable to an outer surface side of a wall; a drain outlet passing through a bottom wall of the housing body; a drain ditch formation portion for forming a drain ditch from the drain outlet to an attachment outer portion of the housing body, a metallic collar provided on a body fixing portion continuous with the housing body, and a bolt inserted in the collar, wherein the drain ditch formation portion is formed by causing the collar to protrude toward the outer surface of the bottom wall to cause a gap (ΔS), and wherein in the drain ditch formation portion, an outer surface of the bottom wall is formed so as to be separated from the outer surface of the wall by a dimension of the gap (ΔS) where a capillary phenomenon occurs. a housing body attachable to an outer surface side of a wall; a drain outlet passing through a bottom wall of the housing body; a drain ditch formation portion for forming a drain ditch from the drain outlet to an attachment outer portion of the housing body, a metallic collar provided on a body fixing portion continuous with the housing body, and a bolt inserted in the collar, wherein the drain ditch formation portion is formed by causing the collar to protrude toward the outer surface of the bottom wall to cause a gap (ΔS), and wherein in the drain ditch formation portion, an outer surface of the bottom wall is formed so as to be separated from the outer surface of the wall by a dimension of the gap (ΔS) where a capillary phenomenon occurs.
A transmitting apparatus comprising: a transmitting unit configured to transmit a container, the container including a video stream obtained by coding image data; and an information inserting unit configured to insert display position specification information into a layer of the container, the display position specification information specifying a display position of an image of the image data, wherein the display position specification information comprises information identifying a display target screen, wherein the display position specification information comprises information indicative of whether to permit a display at a display position other than the display position specified by the display position specification information or not. a transmitting unit configured to transmit a container, the container including a video stream obtained by coding image data; and an information inserting unit configured to insert display position specification information into a layer of the container, the display position specification information specifying a display position of an image of the image data,
Coil device for a motor vehicle, having a housing which has a receiving space, having at least one secondary coil which is arranged in the receiving space for the inductive transmission of electric energy for charging an energy store of the motor vehicle, and having at least one ferrite element which is arranged in the housing for conducting at least one magnetic field for the inductive transmission of the electric energy, characterized in that the ferrite element has at least two ferrite regions which are spaced apart from one another at least partially via at least one through opening which is arranged between the ferrite regions and in which a supporting structure is at least partially arranged which is formed from a fiber composite material, has ferritic elements which are received in the fiber composite material, and via which opposite housing elements (7, 8) of the housing are supported on one another.
A bone implant (70, 170, 670) comprising: a proximal end (82, 188); a distal end (84, 186); a first portion extending between the proximal and distal ends (82, 188, 84, 186) having a maximum portion height and a minimum portion height; and a second portion extending between the proximal and distal ends (82, 188, 84, 186) having a maximum portion height and a minimum portion height, the second portion connected to the first portion at the proximal end (82, 188) and the distal end (84, 186) and at least one of the first portion and the second portion being moveable relative to the other of the first portion and the second portion so as to transition the bone implant between a relaxed state wherein the first and second portions are separated by a first distance and a contracted state wherein the first and second portions are separated by a second distance different from the first distance, characterized in that at least one of the proximal end (82, 188) and the distal end (84, 186) have the minimum portion height of at least one of the first portion and the second portion, wherein the minimum portion height of the at least one of the first portion and the second portion differs from the maximum portion height of each of the first portion and the second portion. a proximal end (82, 188); a distal end (84, 186); a first portion extending between the proximal and distal ends (82, 188, 84, 186) having a maximum portion height and a minimum portion height; and a second portion extending between the proximal and distal ends (82, 188, 84, 186) having a maximum portion height and a minimum portion height, the second portion connected to the first portion at the proximal end (82, 188) and the distal end (84, 186) and at least one of the first portion and the second portion being moveable relative to the other of the first portion and the second portion so as to transition the bone implant between a relaxed state wherein the first and second portions are separated by a first distance and a contracted state wherein the first and second portions are separated by a second distance different from the first distance, characterized in that at least one of the proximal end (82, 188) and the distal end (84, 186) have the minimum portion height of at least one of the first portion and the second portion, wherein the minimum portion height of the at least one of the first portion and the second portion differs from the maximum portion height of each of the first portion and the second portion.
A leak detection system for detecting breaches in sealed food containers, the leak detection system comprising: a first optical sensor configured to transmit a light signal across a first testing path, said first optical sensor being sensitive to gas composition variations; and characterised by a permeable pressing member configured to, in use, apply pressure to the sealed food container; wherein said first optical sensor is arranged such that at least a portion of the first testing path along which the light signal is transmitted is located behind the permeable pressing member relative to the side of the pressing member configured to come into contact with the sealed food container or is located within the permeable pressing member. a first optical sensor configured to transmit a light signal across a first testing path, said first optical sensor being sensitive to gas composition variations; and characterised by a permeable pressing member configured to, in use, apply pressure to the sealed food container; wherein said first optical sensor is arranged such that at least a portion of the first testing path along which the light signal is transmitted is located behind the permeable pressing member relative to the side of the pressing member configured to come into contact with the sealed food container or is located within the permeable pressing member.
A craniofacial implant for filling a bone void in a cranium of a patient comprising: a first component having outer and inner surfaces, the outer and inner surfaces being curved in an inferior to posterior direction and a medial to lateral direction; and a second component having outer and inner surfaces, the outer and inner surfaces being curved in an inferior to posterior direction and a medial to lateral direction, characterized in that the first component includes a flange extending outwardly from a medial side surface thereof, and the second component includes a recessed portion extending inwardly from a medial side surface thereof, wherein the first and second components are engageable to one another such that when the medial side surfaces (122, 142) of the first and second components are adjacent one another a joint line is formed along substantially the entire medial side surfaces and the flange of the first component is housed within the recessed portion of the second component along substantially the entire joint line. a first component having outer and inner surfaces, the outer and inner surfaces being curved in an inferior to posterior direction and a medial to lateral direction; and a second component having outer and inner surfaces, the outer and inner surfaces being curved in an inferior to posterior direction and a medial to lateral direction, characterized in that the first component includes a flange extending outwardly from a medial side surface thereof, and the second component includes a recessed portion extending inwardly from a medial side surface thereof, wherein the first and second components are engageable to one another such that when the medial side surfaces (122, 142) of the first and second components are adjacent one another a joint line is formed along substantially the entire medial side surfaces and the flange of the first component is housed within the recessed portion of the second component along substantially the entire joint line.
A method for controlling a flow-rate of at least one fluid flowing in a microfluidic network comprising at least one microchannel and a plurality of inlet/outlet interface ports (21-25, 71-72), the method being characterized in that it comprises: - successively applying a plurality of pressures on at least one of said plurality of inlet/outlet interface ports (21-25, 71-72), - measuring, at a flow-rate measuring point (31-33, 61-62) in the micro fluidic network, a time series of flow-rate values of the fluid generated by the micro fluidic network in response to the plurality of applied pressures, - estimating parameters of a model of the microfluidic network response to input pressure values based on the applied pressure values and the measured time series of output flow-rate values, - computing a target pressure value at each of the at least one inlet/outlet interface ports (21-25, 71-72) corresponding to a predetermined flow-rate value at the flow-rate measuring point (31-33, 61-62), wherein the predetermined flow-rate value corresponds to an output value of the model of the microfluidic network response to the target pressure value, and - applying the computed target pressure value on each of the at least one inlet/outlet interface ports (21-25, 71-72). - successively applying a plurality of pressures on at least one of said plurality of inlet/outlet interface ports (21-25, 71-72), - measuring, at a flow-rate measuring point (31-33, 61-62) in the micro fluidic network, a time series of flow-rate values of the fluid generated by the micro fluidic network in response to the plurality of applied pressures, - estimating parameters of a model of the microfluidic network response to input pressure values based on the applied pressure values and the measured time series of output flow-rate values, - computing a target pressure value at each of the at least one inlet/outlet interface ports (21-25, 71-72) corresponding to a predetermined flow-rate value at the flow-rate measuring point (31-33, 61-62), wherein the predetermined flow-rate value corresponds to an output value of the model of the microfluidic network response to the target pressure value, and - applying the computed target pressure value on each of the at least one inlet/outlet interface ports (21-25, 71-72).
A system for scheduling a service event in a network, the service event comprising reconfiguring a group of devices (080-082, 200) using a reconfiguration subsystem, said reconfiguring being deemed successful if a device is able to register with a registration subsystem of the network after being reconfigured, and the system comprising: - a scheduling subsystem for scheduling the service event by selecting devices from the group and providing scheduling data identifying said selected devices to the reconfiguration subsystem; the system being characterized in that it further comprises: - a monitoring subsystem for: - based on the scheduling data, determining whether the selected devices successfully registered with the registration subsystem, and - generating monitoring data identifying those devices of the selected devices which did not successfully register with the registration subsystem, thereby identifying a first set of devices having failed registration; and - an analysis subsystem arranged for: - analyzing the monitoring data to obtain selection criteria for identifying a second set of devices which are expected to fail registration based on the first set of devices having failed registration; and - providing the selection criteria to the scheduling subsystem for enabling the scheduling subsystem to adjust the scheduling based on the selection criteria. - a scheduling subsystem for scheduling the service event by selecting devices from the group and providing scheduling data identifying said selected devices to the reconfiguration subsystem; - a monitoring subsystem for: - based on the scheduling data, determining whether the selected devices successfully registered with the registration subsystem, and - generating monitoring data identifying those devices of the selected devices which did not successfully register with the registration subsystem, thereby identifying a first set of devices having failed registration; and - based on the scheduling data, determining whether the selected devices successfully registered with the registration subsystem, and - generating monitoring data identifying those devices of the selected devices which did not successfully register with the registration subsystem, thereby identifying a first set of devices having failed registration; and - an analysis subsystem arranged for: - analyzing the monitoring data to obtain selection criteria for identifying a second set of devices which are expected to fail registration based on the first set of devices having failed registration; and - providing the selection criteria to the scheduling subsystem for enabling the scheduling subsystem to adjust the scheduling based on the selection criteria. - analyzing the monitoring data to obtain selection criteria for identifying a second set of devices which are expected to fail registration based on the first set of devices having failed registration; and - providing the selection criteria to the scheduling subsystem for enabling the scheduling subsystem to adjust the scheduling based on the selection criteria.
A processor comprising: a plurality of processing engines including a first processing engine and a second processing engine to independently execute instructions; and a power controller for controlling a performance state of processing engines; the processor characterized in that the power controller is configured to: measure an activity overlap between the first processing engine and the second processing engine during an evaluation interval, wherein the power controller is configured to measure the activity overlap based at least in part on a count value of a counter, wherein the counter is updated when the first processing engine and the second processing engine are concurrently in an active state; estimate an expected activity overlap between the first processing engine and the second processing engine, wherein the power controller is configured to calculate the expected activity overlap based on a first utilization value of the first processing engine, a second utilization value of the second processing engine, and a duration of the evaluation interval; and responsive to the measured activity overlap being not greater than the expected activity overlap, enable the performance state of at least one of the first processing engine and the second processing engine to be increased. a plurality of processing engines including a first processing engine and a second processing engine to independently execute instructions; and a power controller for controlling a performance state of processing engines; measure an activity overlap between the first processing engine and the second processing engine during an evaluation interval, wherein the power controller is configured to measure the activity overlap based at least in part on a count value of a counter, wherein the counter is updated when the first processing engine and the second processing engine are concurrently in an active state; estimate an expected activity overlap between the first processing engine and the second processing engine, wherein the power controller is configured to calculate the expected activity overlap based on a first utilization value of the first processing engine, a second utilization value of the second processing engine, and a duration of the evaluation interval; and responsive to the measured activity overlap being not greater than the expected activity overlap, enable the performance state of at least one of the first processing engine and the second processing engine to be increased.
A method for producing metal microparticle, characterized in that at least two fluids to be processed are used, of these fluids to be processed, at least one fluid to be processed is a metal fluid in which a metal or a metal compound is dissolved in a solvent, at least one fluid to be processed other than the said fluid to be processed is a reducing agent fluid which contains a reducing agent, of these fluids to be processed, at least one fluid to be processed contains a sulfate ion, the fluids to be processed are mixed in a thin film fluid formed between at least two processing surfaces which are disposed in a position they are faced with each other so as to be able to approach to and separate from each other, at least one of which rotates relative to the other, whereby separating metal microparticle derived from the metal or the metal compound in the metal fluid, and by controlling a molar ratio of the sulfate ion to the metal in the mixed fluid to be processed, a ratio (d/D) of a crystallite's diameter (d) of the metal microparticle to a particle diameter of the metal microparticle is controlled. at least two fluids to be processed are used, of these fluids to be processed, at least one fluid to be processed is a metal fluid in which a metal or a metal compound is dissolved in a solvent, at least one fluid to be processed other than the said fluid to be processed is a reducing agent fluid which contains a reducing agent, of these fluids to be processed, at least one fluid to be processed contains a sulfate ion, the fluids to be processed are mixed in a thin film fluid formed between at least two processing surfaces which are disposed in a position they are faced with each other so as to be able to approach to and separate from each other, at least one of which rotates relative to the other, whereby separating metal microparticle derived from the metal or the metal compound in the metal fluid, and by controlling a molar ratio of the sulfate ion to the metal in the mixed fluid to be processed, a ratio (d/D) of a crystallite's diameter (d) of the metal microparticle to a particle diameter of the metal microparticle is controlled.