mhurhangee/ep-ind-claims huggingface dataset:
A clutched device comprising: a clutch assembly comprising a first rotary clutch portion, a second rotary clutch portion, a drive member, a wrap spring and an actuator, the first and second rotary clutch portions being rotatably disposed about a rotary axis of the clutched device, the drive member being disposed about the rotary axis and having an interior clutch surface, the wrap spring having a first end, a second end and a plurality of helical coils that extend axially between the first and second ends (140, 142), the first end being fixed to the first rotary clutch portion, the second end contacting the second rotary clutch portion, the helical coils being received against the interior clutch surface, the actuator comprising an actuator member that is coupled to the first rotary clutch portion for rotation therewith, the actuator member being axially movable along the rotary axis between a first position and a second position to control rotary drag forces within the clutch assembly to effect engagement and disengagement, respectively, of the clutch assembly; characterized in that at least a portion of the rotary power input to the wrap spring is transmitted through an axial end face of the second end of the wrap spring and into a surface of the second rotary clutch portion against which the axial end face of the second end is abutted. a clutch assembly comprising a first rotary clutch portion, a second rotary clutch portion, a drive member, a wrap spring and an actuator, the first and second rotary clutch portions being rotatably disposed about a rotary axis of the clutched device, the drive member being disposed about the rotary axis and having an interior clutch surface, the wrap spring having a first end, a second end and a plurality of helical coils that extend axially between the first and second ends (140, 142), the first end being fixed to the first rotary clutch portion, the second end contacting the second rotary clutch portion, the helical coils being received against the interior clutch surface, the actuator comprising an actuator member that is coupled to the first rotary clutch portion for rotation therewith, the actuator member being axially movable along the rotary axis between a first position and a second position to control rotary drag forces within the clutch assembly to effect engagement and disengagement, respectively, of the clutch assembly; characterized in that at least a portion of the rotary power input to the wrap spring is transmitted through an axial end face of the second end of the wrap spring and into a surface of the second rotary clutch portion against which the axial end face of the second end is abutted.
A cooling channel for a gantry of a diagnostic medical imaging apparatus, comprising: a non-metallic housing having a lower surface, for abutting contact and coupling to an electromagnetic radiation detector, and an upper surface for abutting contact and coupling to a detector electronics package; a cooling conduit in the housing, for circulation of coolant fluid therethrough, the conduit having an inlet and an outlet respectively accessible outside the housing, and an exterior surface profile (50, 52); a unitary, non-metallic heat sink in the housing, having: respective continuous top and bottom surfaces in direct heat-conductive communication with the respective upper and lower surfaces of the housing, characterized in that, a lateral surface (60, 62) between the top and bottom surfaces, having an exterior surface profile conforming to the exterior surface profile of the conduit, in opposed, spaced orientation with the conduit; and a solid, thermally conductive layer (64, 66) interposed between and affixed to the respective opposed, exterior surface profiles of the conduit and the heat sink. a cooling conduit in the housing, for circulation of coolant fluid therethrough, the conduit having an inlet and an outlet respectively accessible outside the housing, and an exterior surface profile (50, 52); a unitary, non-metallic heat sink in the housing, having: respective continuous top and bottom surfaces in direct heat-conductive communication with the respective upper and lower surfaces of the housing, characterized in that, a lateral surface (60, 62) between the top and bottom surfaces, having an exterior surface profile conforming to the exterior surface profile of the conduit, in opposed, spaced orientation with the conduit; and a solid, thermally conductive layer (64, 66) interposed between and affixed to the respective opposed, exterior surface profiles of the conduit and the heat sink. respective continuous top and bottom surfaces in direct heat-conductive communication with the respective upper and lower surfaces of the housing, characterized in that, a lateral surface (60, 62) between the top and bottom surfaces, having an exterior surface profile conforming to the exterior surface profile of the conduit, in opposed, spaced orientation with the conduit; and a solid, thermally conductive layer (64, 66) interposed between and affixed to the respective opposed, exterior surface profiles of the conduit and the heat sink.
A processor comprising: a first source vector register to store a first plurality of source bit groups, wherein a size for the bit groups is to be specified in an immediate of an instruction; a second source vector to store a second plurality of source bit groups; vector bit reversal and crossing logic to determine a bit group size from the immediate and to responsively reverse positions of contiguous bit groups within the first source vector register to generate a set of reversed bit groups, wherein the vector bit reversal and crossing logic is to additionally interleave the set of reversed bit groups with the second plurality of bit groups; and a destination vector register to store the reversed bit groups interleaved with the first plurality of bit groups wherein the vector bit reversal and crossing logic is to determine, from the immediate, whether to interleave the set of reversed bit groups with the second plurality of bit groups and to determine, from the immediate, an order of selecting from the set of reversed bit groups or the second plurality of bit groups to interleave. a first source vector register to store a first plurality of source bit groups, wherein a size for the bit groups is to be specified in an immediate of an instruction; a second source vector to store a second plurality of source bit groups; vector bit reversal and crossing logic to determine a bit group size from the immediate and to responsively reverse positions of contiguous bit groups within the first source vector register to generate a set of reversed bit groups, wherein the vector bit reversal and crossing logic is to additionally interleave the set of reversed bit groups with the second plurality of bit groups; and a destination vector register to store the reversed bit groups interleaved with the first plurality of bit groups wherein the vector bit reversal and crossing logic is to determine, from the immediate, whether to interleave the set of reversed bit groups with the second plurality of bit groups and to determine, from the immediate, an order of selecting from the set of reversed bit groups or the second plurality of bit groups to interleave.
An aluminum nitride-based sintered compact, comprising: aluminum nitride crystal particles comprising Mg; composite oxide comprising a rare earth element and Al, the composite oxide having a garnet crystal structure; and composite oxynitride comprising Mg and Al, the composite oxide and the composite oxynitride being interspersed as particles (3, 4) between the aluminum nitride crystal particles, wherein the composite oxide particles and the composite oxynitride particles do not exist in the form of a continuous grain boundary layer covering the surface of an aluminum nitride crystal particle and wherein the aluminum nitride crystal particle has a portion kept in direct contact with adjacent aluminum nitride crystal particles without intermediary of other phase, wherein a content of Mg in the aluminum nitride crystal particles falls in a range of 0.1 mol% or more and 1.0 mol% or less, based on a total of all metal elements contained in the aluminum nitride crystal particles taken as 100 mol%, the content of Mg being determined by examination of the fracture surface or mirror-finished surface of a section of the aluminum nitride-based sintered compact through local element analysis, such as wavelength dispersive X-ray spectrometry, energy dispersive X-ray spectrometry, or secondary ion mass spectrometry (SIMS). aluminum nitride crystal particles comprising Mg; composite oxide comprising a rare earth element and Al, the composite oxide having a garnet crystal structure; and composite oxynitride comprising Mg and Al, the composite oxide and the composite oxynitride being interspersed as particles (3, 4) between the aluminum nitride crystal particles, wherein the composite oxide particles and the composite oxynitride particles do not exist in the form of a continuous grain boundary layer covering the surface of an aluminum nitride crystal particle and wherein the aluminum nitride crystal particle has a portion kept in direct contact with adjacent aluminum nitride crystal particles without intermediary of other phase, wherein a content of Mg in the aluminum nitride crystal particles falls in a range of 0.1 mol% or more and 1.0 mol% or less, based on a total of all metal elements contained in the aluminum nitride crystal particles taken as 100 mol%, the content of Mg being determined by examination of the fracture surface or mirror-finished surface of a section of the aluminum nitride-based sintered compact through local element analysis, such as wavelength dispersive X-ray spectrometry, energy dispersive X-ray spectrometry, or secondary ion mass spectrometry (SIMS).
A liquid ejecting apparatus comprising: a liquid ejecting portion that has a nozzle and is configured to perform a recording process by ejecting liquid from the nozzle toward a medium; a supply flow path through which the liquid that is accommodated in a liquid accommodating body can flow toward the liquid ejecting portion; a pressure feeding mechanism configured to forcefully cause the liquid to flow from the liquid accommodating body toward the liquid ejecting portion; and an accommodating body holding portion that is capable of having the liquid accommodating body mounted thereon and has a supply position at which it is possible to supply the liquid to the liquid ejecting portion using a liquid pressure head with respect to the nozzle of the liquid that is accommodated in the mounted liquid accommodating body, characterised in that the accommodating body holding portion is provided to be movable between the supply position and an attachment and detachment position at which the position of the mounted liquid accommodating body is lower than the position of the liquid accommodating body at the supply position, and the liquid accommodating body is attachable to and detachable from the accommodating body holding portion at the attachment and detachment position. a liquid ejecting portion that has a nozzle and is configured to perform a recording process by ejecting liquid from the nozzle toward a medium; a supply flow path through which the liquid that is accommodated in a liquid accommodating body can flow toward the liquid ejecting portion; a pressure feeding mechanism configured to forcefully cause the liquid to flow from the liquid accommodating body toward the liquid ejecting portion; and an accommodating body holding portion that is capable of having the liquid accommodating body mounted thereon and has a supply position at which it is possible to supply the liquid to the liquid ejecting portion using a liquid pressure head with respect to the nozzle of the liquid that is accommodated in the mounted liquid accommodating body, characterised in that the accommodating body holding portion is provided to be movable between the supply position and an attachment and detachment position at which the position of the mounted liquid accommodating body is lower than the position of the liquid accommodating body at the supply position, and the liquid accommodating body is attachable to and detachable from the accommodating body holding portion at the attachment and detachment position.
Motor vehicle comprising a motor vehicle body frame structure with a frame each forming a roof opening, to each of is to be joined a roof module selected from a plurality of design variants of the roof module, each having design variant-specific planar elements, wherein - a first design variant of the roof module comprises a cover part comprising two of the planar elements (34, 36, 42, 43, 48, 52) for a panoramic glass sunroof and - a second design variant of the roof module comprises a cover part comprising two of the planar elements (34, 36, 42, 43, 48, 52) for a tilt/slide sunroof, - wherein the planar elements of the first and second design variants of the roof module are to be joined to the frame of the motor vehicle body frame structure by means of frame-shaped adapter elements (16, 18) having openings (16a, 18a) each. characterised in that for each design variant of the roof module there is provided a roof module design variant-specific adapter element (16, 18), said adapter elements (16, 18) having a uniform connection geometry for joining the respective adapter element (16, 18) to the frame of the motor vehicle body frame structure, and in that all roof modules are to be joined to the frame of the motor vehicle body frame structure in the same way. - a first design variant of the roof module comprises a cover part comprising two of the planar elements (34, 36, 42, 43, 48, 52) for a panoramic glass sunroof and - a second design variant of the roof module comprises a cover part comprising two of the planar elements (34, 36, 42, 43, 48, 52) for a tilt/slide sunroof, - wherein the planar elements of the first and second design variants of the roof module are to be joined to the frame of the motor vehicle body frame structure by means of frame-shaped adapter elements (16, 18) having openings (16a, 18a) each.
Supply device for the electrical supply of at least one consumer (2, 3), with a primary power supply system, in which a fuel cell device having a first primary power supply system connection and a second primary power supply system connection is present, with a secondary power supply system, in which a battery having a first secondary power supply system connection and a second secondary power supply system connection is present, which battery has an operational voltage range, which has an upper limit of a maximum voltage and a lower limit of a minimum voltage, and which has an operational current intensity range for supplying current to the at least one consumer (2, 3), wherein the first primary power supply system connection and the first secondary power supply system connection are connected to each other via a barrier diode and the second primary power supply system connection and the second secondary power supply system connection are directly connected to each other, whereby the primary power supply system is connected to the secondary power supply system without a voltage transformer and a no-load voltage of the fuel cell device corresponds at most to the maximum voltage of the battery, characterised in that an impedance spectroscopy device is present in the primary power supply system, which impedance spectroscopy device is configured to carry out an impedance spectroscopy measurement to check for the presence of frost start conditions at the fuel cell device or at individual fuel cells of the fuel cell device, the impedance spectroscopy device being connected at one end to the first primary power supply system connection and at the other end to the second primary power supply system connection.
A fan assembly for generating an air flow within a room, the fan assembly comprising: an impeller and a motor for driving the impeller to draw an air flow into the fan assembly, and a casing having an interior passage comprising a scroll section having a cross-sectional area that decreases from a scroll inlet section to a scroll outlet section, the scroll inlet section comprising an inlet port for receiving the air flow and the scroll outlet section comprising an outlet port for emitting a first portion of the air flow into the casing, the scroll section having at least one air outlet for emitting a second portion of the air flow from the casing; characterised in that the casing defines a bore through which air from outside the fan assembly is drawn by the air emitted from said at least one air outlet. an impeller and a motor for driving the impeller to draw an air flow into the fan assembly, and a casing having an interior passage comprising a scroll section having a cross-sectional area that decreases from a scroll inlet section to a scroll outlet section, the scroll inlet section comprising an inlet port for receiving the air flow and the scroll outlet section comprising an outlet port for emitting a first portion of the air flow into the casing, the scroll section having at least one air outlet for emitting a second portion of the air flow from the casing; characterised in that the casing defines a bore through which air from outside the fan assembly is drawn by the air emitted from said at least one air outlet.
A handheld injection safety applicator comprising: an applicator housing; a handle; a retractable needle housed within the applicator; a first sensor configured to detect the presence of a user's grip on the handle; a second sensor configured to detect the presence of an animal; and a processing circuitry configured to receive a first signal from the first sensor indicating that the user is gripping the handle; receive a second signal from the second sensor indicating that an animal is detected; the handheld injection safety applicator being characterised in that, the processing circuitry is further configured to: extend the needle out of the applicator into the animal once the first and second signals are received; and deliver a dose of medication into the animal once the needle is fully extended into the animal; wherein the processing circuitry extends the needle by actuating a linear actuator with a first predetermined amount of force and the processing circuitry actuates the linear actuator to deliver a dose of medication, after the needle has been extended, with a second predetermined amount of force that is greater than the first predetermine amount of force; the second sensor is configured to be triggered by contact of the applicator with the skin of the animal. an applicator housing; a handle; a retractable needle housed within the applicator; a first sensor configured to detect the presence of a user's grip on the handle; a second sensor configured to detect the presence of an animal; and a processing circuitry configured to receive a first signal from the first sensor indicating that the user is gripping the handle; receive a second signal from the second sensor indicating that an animal is detected; receive a first signal from the first sensor indicating that the user is gripping the handle; receive a second signal from the second sensor indicating that an animal is detected; the handheld injection safety applicator being characterised in that, the processing circuitry is further configured to: extend the needle out of the applicator into the animal once the first and second signals are received; and deliver a dose of medication into the animal once the needle is fully extended into the animal; extend the needle out of the applicator into the animal once the first and second signals are received; and deliver a dose of medication into the animal once the needle is fully extended into the animal; wherein the processing circuitry extends the needle by actuating a linear actuator with a first predetermined amount of force and the processing circuitry actuates the linear actuator to deliver a dose of medication, after the needle has been extended, with a second predetermined amount of force that is greater than the first predetermine amount of force; the second sensor is configured to be triggered by contact of the applicator with the skin of the animal.
A method of controlling data traffic in a mobile network comprising one or more packet filters (72, 74) for directing data traffic to a default bearer or to a dedicated bearer having a higher quality of service level than the default bearer, the method comprising: detecting, by a first detector of a network node of the mobile network, data traffic of a certain type; determining, by a first controller of the network node, the dedicated bearer for transmission of the detected data traffic; detecting, by a second detector of the network node, a packet flow in the detected data traffic; on the basis of traffic load information, taking a decision, by a second controller of the network node, whether the detected packet flow can be admitted to the dedicated bearer; and marking, by the second detector, data packets of the detected packet flow according to the decision, wherein said one or more packet filters (72, 74) are configured to direct data packets of the detected flow to the dedicated bearer if the marking indicates that the detected packet flow can be admitted to the dedicated bearer, and to direct data packets of the detected flow to the default bearer if the marking indicates that the detected packet flow can not be admitted to the dedicated bearer. detecting, by a first detector of a network node of the mobile network, data traffic of a certain type; determining, by a first controller of the network node, the dedicated bearer for transmission of the detected data traffic; detecting, by a second detector of the network node, a packet flow in the detected data traffic; on the basis of traffic load information, taking a decision, by a second controller of the network node, whether the detected packet flow can be admitted to the dedicated bearer; and marking, by the second detector, data packets of the detected packet flow according to the decision, wherein said one or more packet filters (72, 74) are configured to direct data packets of the detected flow to the dedicated bearer if the marking indicates that the detected packet flow can be admitted to the dedicated bearer, and to direct data packets of the detected flow to the default bearer if the marking indicates that the detected packet flow can not be admitted to the dedicated bearer.
A thermal runaway barrier operatively adapted for being disposed between battery cells of a battery assembly and for at least significantly slowing down a thermal runaway event within the battery assembly, said thermal runaway barrier comprising: a layer of a nonwoven fibrous thermal insulation comprising a fiber matrix of inorganic fibers; thermally insulative inorganic particles of fumed silica material dispersed within the fiber matrix, and a binder dispersed within the fiber matrix so as to hold together the fiber matrix; and an organic encapsulation layer; wherein the layer of nonwoven fibrous thermal insulation is encapsulated by the organic encapsulation layer, and wherein the organic encapsulation layer has at least one vent hole formed therethrough that is located and sized to allow gas contained within the thermal runaway barrier to escape from the organic encapsulation, such that the structural integrity of the organic encapsulation layer is kept intact, during a thermal runaway event. a layer of a nonwoven fibrous thermal insulation comprising a fiber matrix of inorganic fibers; thermally insulative inorganic particles of fumed silica material dispersed within the fiber matrix, and a binder dispersed within the fiber matrix so as to hold together the fiber matrix; and an organic encapsulation layer; wherein the layer of nonwoven fibrous thermal insulation is encapsulated by the organic encapsulation layer, and