mhurhangee/ep-ind-claims huggingface dataset:
Content item receiver module operative for a content item distribution system, configured to operate in a first and second mode: said first mode operative to drive a display apparatus to display a received content item; said second mode operative for a specified time window to drive said display apparatus to display a sequence of linked content items (176a, 176b, 176c, 176d; 238a, 238b, 238c, 238d) and to respond to user input to initiate transition from display of a currently displayed linked content item to display of another linked content item in said sequence of linked content items prior to an end of said currently displayed linked content item; characterised in that: said module is operative in said second mode to one of: truncate a currently displayed linked content item to finish display of said currently displayed linked content item coincident with a finish of said specified time window; and continue display of a currently displayed linked content item beyond an end of said specified time window and to initiate recording of a received content item that would be displayed had said system returned to said first mode, and return to the start of said recording responsive to a finish of said currently displayed linked content item. said first mode operative to drive a display apparatus to display a received content item; said second mode operative for a specified time window to drive said display apparatus to display a sequence of linked content items (176a, 176b, 176c, 176d; 238a, 238b, 238c, 238d) and to respond to user input to initiate transition from display of a currently displayed linked content item to display of another linked content item in said sequence of linked content items prior to an end of said currently displayed linked content item; characterised in that: said module is operative in said second mode to one of: truncate a currently displayed linked content item to finish display of said currently displayed linked content item coincident with a finish of said specified time window; and continue display of a currently displayed linked content item beyond an end of said specified time window and to initiate recording of a received content item that would be displayed had said system returned to said first mode, and return to the start of said recording responsive to a finish of said currently displayed linked content item. said module is operative in said second mode to one of: truncate a currently displayed linked content item to finish display of said currently displayed linked content item coincident with a finish of said specified time window; and continue display of a currently displayed linked content item beyond an end of said specified time window and to initiate recording of a received content item that would be displayed had said system returned to said first mode, and return to the start of said recording responsive to a finish of said currently displayed linked content item.
A torsional vibration damper with a torque limiter, in particular for a clutch plate within a drive train of a motor vehicle, with an input part rotatably mounted about a rotational axis, and an output part which is twistably arranged such that it can be rotated counter to the action of a spring device to a limited extent about the rotational axis relative to the input part, wherein at least two torque-transmitting intermediate elements are arranged between the input part and the output part so as to move radially by means of cam mechanisms in the case of a relative rotation of the input part and the output part, wherein, in the case of a relative rotation between the input part and the output part, a torsional characteristic curve of a drive torque over the rotary angle is configured by way of the configuration of the cam mechanisms and/or a configuration of the spring device, which torsional characteristic curve has a damper stage and an end stage which adjoins the damper stage, wherein the damper stage specifies a damper capacity of the drive torque over the rotary angle, and the end stage comprises a torque limitation of the drive torque over the rotary angle, wherein the cam mechanisms are each formed from radially effective ramp devices, characterised in that the ramp devices each have two contours that adjoin one another and differ from one another in the pulling direction and in the pushing direction, and a rolling element is arranged between mutually complementary contours of a ramp device of a cam mechanism. an output part which is twistably arranged such that it can be rotated counter to the action of a spring device to a limited extent about the rotational axis relative to the input part, wherein at least two torque-transmitting intermediate elements are arranged between the input part and the output part so as to move radially by means of cam mechanisms in the case of a relative rotation of the input part and the output part, wherein, in the case of a relative rotation between the input part and the output part, a torsional characteristic curve of a drive torque over the rotary angle is configured by way of the configuration of the cam mechanisms and/or a configuration of the spring device, which torsional characteristic curve has a damper stage and an end stage which adjoins the damper stage, wherein the damper stage specifies a damper capacity of the drive torque over the rotary angle, and the end stage comprises a torque limitation of the drive torque over the rotary angle, wherein the cam mechanisms are each formed from radially effective ramp devices, characterised in that the ramp devices each have two contours that adjoin one another and differ from one another in the pulling direction and in the pushing direction, and a rolling element is arranged between mutually complementary contours of a ramp device of a cam mechanism.
An exhaust system (1, 2) comprising: at least one member selected from the group consisting of an exhaust gas purification device, an exhaust gas treating body, and an exhaust pipe (140, 150) in an automotive exhaust system (1, 2); and a mat material disposed on a surface of the at least one member, the mat material comprising: inorganic fibers; and an oily fiber-scattering inhibitor attached to a surface of the inorganic fibers, wherein the amount of the fiber-scattering inhibitor attached is 0.05 to 2.0% by weight, characterized in that when the mat material is trisected into a top surface portion, a middle portion, and a bottom surface portion in the thickness direction, the amount of the fiber-scattering inhibitor attached to the bottom surface portion is smaller than that in the top surface portion, and the mat material is disposed such that the bottom surface portion faces the at least one member. at least one member selected from the group consisting of an exhaust gas purification device, an exhaust gas treating body, and an exhaust pipe (140, 150) in an automotive exhaust system (1, 2); and a mat material disposed on a surface of the at least one member, the mat material comprising: inorganic fibers; and an oily fiber-scattering inhibitor attached to a surface of the inorganic fibers, wherein the amount of the fiber-scattering inhibitor attached is 0.05 to 2.0% by weight, characterized in that when the mat material is trisected into a top surface portion, a middle portion, and a bottom surface portion in the thickness direction, the amount of the fiber-scattering inhibitor attached to the bottom surface portion is smaller than that in the top surface portion, and the mat material is disposed such that the bottom surface portion faces the at least one member. inorganic fibers; and an oily fiber-scattering inhibitor attached to a surface of the inorganic fibers, wherein the amount of the fiber-scattering inhibitor attached is 0.05 to 2.0% by weight, characterized in that when the mat material is trisected into a top surface portion, a middle portion, and a bottom surface portion in the thickness direction, the amount of the fiber-scattering inhibitor attached to the bottom surface portion is smaller than that in the top surface portion, and the mat material is disposed such that the bottom surface portion faces the at least one member.
An axial fan, comprising: a rotatable fan blade assembly including a plurality of fan blades; a plurality of permanent magnets affixed to the plurality of fan blades; a stationary guide channel disposed radially outboard of the fan blade assembly; a plurality of field coils located at the guide channel, the plurality of field coils configured to drive rotation of the fan blade assembly via magnetic interaction with the plurality of permanent magnets when the plurality of field coils are sequentially energized; wherein the axial fan is configured such that when the plurality of field coils are energized the fan blade assembly is radially spaced from the guide channel around an entire circumference of the fan blade assembly, and when the plurality of field coils are deenergized the fan blade assembly is in radial contact with the guide channel at at least one location around the circumference of the fan blade assembly; wherein the plurality of fan blades extend from a center hub to an outer ring and the guide channel extends around an outer circumference of the outer ring; wherein the outer ring is located inside the guide channel, characterized in that the guide channel includes a plurality of guide channel segments each extending partially around the outer circumference of the outer ring, wherein the axial fan comprises a circumferential gap between each adjacent guide channel segment of the plurality of guide channel segments. a rotatable fan blade assembly including a plurality of fan blades; a plurality of permanent magnets affixed to the plurality of fan blades; a stationary guide channel disposed radially outboard of the fan blade assembly; a plurality of field coils located at the guide channel, the plurality of field coils configured to drive rotation of the fan blade assembly via magnetic interaction with the plurality of permanent magnets when the plurality of field coils are sequentially energized; wherein the axial fan is configured such that when the plurality of field coils are energized the fan blade assembly is radially spaced from the guide channel around an entire circumference of the fan blade assembly, and when the plurality of field coils are deenergized the fan blade assembly is in radial contact with the guide channel at at least one location around the circumference of the fan blade assembly; wherein the plurality of fan blades extend from a center hub to an outer ring and the guide channel extends around an outer circumference of the outer ring; wherein the outer ring is located inside the guide channel, characterized in that the guide channel includes a plurality of guide channel segments each extending partially around the outer circumference of the outer ring, wherein the axial fan comprises a circumferential gap between each adjacent guide channel segment of the plurality of guide channel segments.
A communication method of a wireless local area network access point, WLAN AP, comprising steps of: storing identifiers by correlating a first identifier to be used for the WLAN AP to identify user equipment, UE, with a second identifier to be used for an eNodeB, eNB, to identify the UE, when a bearer setup is requested (835, 930); setting up (840, 845, 850, 935, 940, 945) with the eNB and UE a first bearer through the WLAN AP; receiving, from the UE, a first packet including the first identifier, a third identifier and data via the first bearer; creating a second packet including the second identifier corresponding to the first identifier, the third identifier, and the data of the first packet; and transmitting the second packet to the eNB via the first bearer, wherein the third identifier indicates a bearer connected between the UE and the eNB. storing identifiers by correlating a first identifier to be used for the WLAN AP to identify user equipment, UE, with a second identifier to be used for an eNodeB, eNB, to identify the UE, when a bearer setup is requested (835, 930); setting up (840, 845, 850, 935, 940, 945) with the eNB and UE a first bearer through the WLAN AP; receiving, from the UE, a first packet including the first identifier, a third identifier and data via the first bearer; creating a second packet including the second identifier corresponding to the first identifier, the third identifier, and the data of the first packet; and transmitting the second packet to the eNB via the first bearer, wherein the third identifier indicates a bearer connected between the UE and the eNB.
A communication system, comprising: a plurality of devices that form a mesh-type network, each of the plurality of devices performing communication from a source device to a destination device, directly or by relaying via one or more other devices, and at least one of the plurality of devices including a selecting unit, that selects a communication route from the source device to the destination device according to a first restriction with regard to a relay value indicative of the number of communication routes that each device is able to relay; wherein the selecting unit selects the communication route according to the first restriction and a second restriction with regard to a round-trip time between the source device and the destination device. a plurality of devices that form a mesh-type network, each of the plurality of devices performing communication from a source device to a destination device, directly or by relaying via one or more other devices, and at least one of the plurality of devices including a selecting unit, that selects a communication route from the source device to the destination device according to a first restriction with regard to a relay value indicative of the number of communication routes that each device is able to relay; wherein the selecting unit selects the communication route according to the first restriction and a second restriction with regard to a round-trip time between the source device and the destination device.
A laser system, comprising: a semiconductor laser having a laser driver coupled thereto; wherein an output of said semiconductor laser is optically coupled to an input of an optical splitter that provides outputs including or coupled to a first branch having a first branch fiber coupled to a feedback reflector which provides a cavity boundary that defines a passive secondary cavity for said semiconductor laser, and a second branch including a back reflection reduction device, wherein a roundtrip attenuation from an output facet of said semiconductor laser to said feedback reflector is from -30 dB to -80 dB; wherein an output of said laser system is taken after said back reflection reduction device, characterized in that said laser driver is configured to provide sufficient drive stability so that, during operation, a frequency variation of said semiconductor laser is less than a free spectral range, FSR, of said secondary cavity, and wherein the first branch is arranged such that the optical path length thereof is allowed to vary during operation. a semiconductor laser having a laser driver coupled thereto; wherein an output of said semiconductor laser is optically coupled to an input of an optical splitter that provides outputs including or coupled to a first branch having a first branch fiber coupled to a feedback reflector which provides a cavity boundary that defines a passive secondary cavity for said semiconductor laser, and a second branch including a back reflection reduction device, wherein a roundtrip attenuation from an output facet of said semiconductor laser to said feedback reflector is from -30 dB to -80 dB; wherein an output of said laser system is taken after said back reflection reduction device, characterized in that said laser driver is configured to provide sufficient drive stability so that, during operation, a frequency variation of said semiconductor laser is less than a free spectral range, FSR, of said secondary cavity, and wherein the first branch is arranged such that the optical path length thereof is allowed to vary during operation.
Drive train of a vehicle having at least one overload coupling and an electrical machine, wherein the electrical machine has a brake element and a release device and wherein a rotor of the electrical machine has the brake element and the release device, characterised in that the overload coupling is actuatable by a release of the brake element, wherein the brake element is provided, following a release, for emerging radially from the rotor and into the air gap of the electrical machine.
A breather device for dehumidifying air to be supplied into an expansion vessel of a power electrical apparatus, said breather device comprising: - an air demoisturizer unit including a first tank and a second tank, each tank having an internal volume accommodating a moisture absorbing substance and being in fluid-dynamic communication with the external environment; - a main port adapted to be in fluid-dynamic communication with said expansion vessel; - a valve assembly in fluid-dynamic communication with each tank (2A, 2B) and said main port; wherein said valve assembly is adapted to take a first operating condition, in which said valve assembly allows air coming from the first tank to reach said main port and said valve assembly prevents air coming from the second tank to reach said main port, or a second operating condition, in which said valve assembly prevents air coming from the first tank to reach said main port and said valve assembly allows air coming from the second tank to reach said main port, wherein said valve assembly is adapted to switch reversibly between said first and second operating conditions (C1, C2) in response to feeding signals (F1, F2, F3) received from a power supply, characterized in that said valve assembly comprises valve means (31, 32, 33) which comprise actuators (310, 320, 330) operatively coupled to valve elements (311, 322, 333, 334) arranged at the inlets (35, 36) of said valve assembly and characterized in that said actuators (310, 320, 330) are provided with a permanent magnet as blocking means to block said valve elements (311, 322, 333) in said first or second operating condition (C1, C2) so reached, in order to stably maintain said first or second operating condition (C1, C2) in case of outage of said power supply. - an air demoisturizer unit including a first tank and a second tank, each tank having an internal volume accommodating a moisture absorbing substance and being in fluid-dynamic communication with the external environment; - a main port adapted to be in fluid-dynamic communication with said expansion vessel; - a valve assembly in fluid-dynamic communication with each tank (2A, 2B) and said main port; wherein said valve assembly is adapted to switch reversibly between said first and second operating conditions (C1, C2) in response to feeding signals (F1, F2, F3) received from a power supply, characterized in that said valve assembly comprises valve means (31, 32, 33) which comprise actuators (310, 320, 330) operatively coupled to valve elements (311, 322, 333, 334) arranged at the inlets (35, 36) of said valve assembly and characterized in that said actuators (310, 320, 330) are provided with a permanent magnet as blocking means to block said valve elements (311, 322, 333) in said first or second operating condition (C1, C2) so reached, in order to stably maintain said first or second operating condition (C1, C2) in case of outage of said power supply.
A method of manufacturing a plurality of analyte sensors having similar operating characteristics, the method comprising: forming a plurality of substantially functional analyte sensors, each sensor having a channel extending to an edge of the sensor; characterized in that the method comprises: testing at least one of the sensors to determine a calibration parameter of the sensor; based on the calibration parameter of the tested sensor, trimming a predetermined amount from the edges of the non-tested sensors, thereby shorting the channels of the sensors and changing a calibration parameter of the sensors. forming a plurality of substantially functional analyte sensors, each sensor having a channel extending to an edge of the sensor; characterized in that the method comprises: testing at least one of the sensors to determine a calibration parameter of the sensor; based on the calibration parameter of the tested sensor, trimming a predetermined amount from the edges of the non-tested sensors, thereby shorting the channels of the sensors and changing a calibration parameter of the sensors. testing at least one of the sensors to determine a calibration parameter of the sensor; based on the calibration parameter of the tested sensor, trimming a predetermined amount from the edges of the non-tested sensors, thereby shorting the channels of the sensors and changing a calibration parameter of the sensors.
An aqueous adhesive composition comprising: (a) soy protein and (b) magnesium oxide or a mixture of magnesium oxide and magnesium hydroxide; or a reaction product of (a) soy protein and (b) magnesium oxide or a mixture of magnesium oxide and magnesium hydroxide; wherein components (a) and (b) are the only adhesive-active components in the composition and together constitute at least 75 weight percent of the composition, excluding the weight of the water, and the mix weight ratio of the soy protein to the magnesium oxide is 10:1 to 1:5, based on dry weight. (a) soy protein and (b) magnesium oxide or a mixture of magnesium oxide and magnesium hydroxide; or
A folding rule, comprising an end member with a first end portion and a second end portion opposite the first end portion, wherein the end member is made of plastic, wherein the first end portion is linked to another member of the folding rule and the second end portion is provided with a protective end cap, wherein the protective end cap includes a protrusion in snap-fit engagement with a corresponding engagement portion of a first outer surface of the end member so as to prevent the protective end cap from sliding off the end member.
A client device for accessing a remote device via a communication network, the client device being configured to: a) detect a termination of a network connection to the remote device; b) in response to detecting the termination of the network connection, record an idle time duration associated with the network at the time of the termination of the network connection to the remote device; c) repeat a) and b) until a plurality of idle time durations have been recorded; d) determine from the plurality of idle time durations a timeout value associated with the network by comparing sample values of the plurality of idle time durations recorded in response to the terminations of the network connection and sample values of a plurality of idle time durations recorded in response to the client device exiting an idle state whilst the network connection is maintained; and e) transmit the determined timeout value and information identifying the network to a network component. a) detect a termination of a network connection to the remote device; b) in response to detecting the termination of the network connection, record an idle time duration associated with the network at the time of the termination of the network connection to the remote device; c) repeat a) and b) until a plurality of idle time durations have been recorded; d) determine from the plurality of idle time durations a timeout value associated with the network by comparing sample values of the plurality of idle time durations recorded in response to the terminations of the network connection and sample values of a plurality of idle time durations recorded in response to the client device exiting an idle state whilst the network connection is maintained; and e) transmit the determined timeout value and information identifying the network to a network component.