mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: an Integrated Circuit and/or a semiconductor substrate (12, 70, 170); the apparatus further comprising: a first pillar comprising a first end and a second end, the first end connected to the IC and/or the semiconductor substrate (12, 70, 170), wherein the second end comprises a first attachment point (22, 190) collinear with a first central axis of the first pillar, wherein the first attachment point (22, 190) comprises a first solder volume capacity; a second pillar (16a-d) comprising a third end and a fourth end, the third end connected to the IC and/or the semiconductor substrate (12, 70, 170), wherein the fourth end comprises a second attachment point (26a-d, 192, 194) disposed on a side of the second pillar (16a-d) facing the first pillar, wherein the second attachment point (26a-d, 192, 194) comprises a second solder volume capacity being less than the first solder volume capacity, and a first distance between the first end and the second end is less than a second distance between the third end and the fourth end, and characterized by an assembly substrate (112, 162, 180) comprising a pad block having a top facet and a side facet, wherein the top facet is parallel to the assembly substrate (112, 162, 180) and the side facet is orthogonal to the top facet, wherein the first attachment point (22, 190) is connected to the top facet and the second attachment point (26a-d, 192, 194) is connected to the side facet. a first pillar comprising a first end and a second end, the first end connected to the IC and/or the semiconductor substrate (12, 70, 170), wherein the second end comprises a first attachment point (22, 190) collinear with a first central axis of the first pillar, wherein the first attachment point (22, 190) comprises a first solder volume capacity; a second pillar (16a-d) comprising a third end and a fourth end, the third end connected to the IC and/or the semiconductor substrate (12, 70, 170), wherein the fourth end comprises a second attachment point (26a-d, 192, 194) disposed on a side of the second pillar (16a-d) facing the first pillar, wherein the second attachment point (26a-d, 192, 194) comprises a second solder volume capacity being less than the first solder volume capacity, and a first distance between the first end and the second end is less than a second distance between the third end and the fourth end, and characterized by an assembly substrate (112, 162, 180) comprising a pad block having a top facet and a side facet, wherein the top facet is parallel to the assembly substrate (112, 162, 180) and the side facet is orthogonal to the top facet, wherein the first attachment point (22, 190) is connected to the top facet and the second attachment point (26a-d, 192, 194) is connected to the side facet.
Hub reduction gear for a driving wheel of a wheeled vehicle, comprising a planetary gear unit, which has a sun gear connectable to a drive shaft (38a, 38b), a carrier for planet gears, which are in mesh with the sun gear, and a ring gear surrounding the planet gears, being in mesh with the planet gears, characterised in that the planet gear carrier and the ring gear are configured to be alternately connected to the driving wheels of the vehicle and being alternately connectable to a body-fixed part.
A method performed by a source node of a multicast flow, wherein the multicast flow uses a shared tree to map out multicast transmission routes to multiple destination nodes of the multicast flow, wherein multiple flows, among which the multicast flow is one multicast flow, share the shared tree to multicast data frames, wherein the method comprises the steps of: ∘ advertising a sub-type-length-value, sub-TLV, to the multiple destination nodes, the sub-TLV comprising: • a shared tree field that, when being set to a first specific value, indicates that a Backbone Service Instance Identifier, I-SID, endpoint uses the shared tree for multicasting data frames, and • a tie-break mask that indicates the shared tree used at the I-SID endpoint. ∘ advertising a sub-type-length-value, sub-TLV, to the multiple destination nodes, the sub-TLV comprising: • a shared tree field that, when being set to a first specific value, indicates that a Backbone Service Instance Identifier, I-SID, endpoint uses the shared tree for multicasting data frames, and • a tie-break mask that indicates the shared tree used at the I-SID endpoint. • a shared tree field that, when being set to a first specific value, indicates that a Backbone Service Instance Identifier, I-SID, endpoint uses the shared tree for multicasting data frames, and • a tie-break mask that indicates the shared tree used at the I-SID endpoint.
An ellipsometer or polarimeter system comprising: at least two sources of electromagnetic radiation, one being a source of terahertz frequencies selected from the group consisting of: a backward wave oscillator; a Smith-Purcell cell; a free electron laser; and a solid state source device, another being a source of infrared frequencies including an FTIR source; means for directing electromagnetic radiation from said source of terahertz frequencies and said source of infrared frequencies along a single beam path; a polarization state generator comprising a polarization state generator exit polarizer preceded by an odd-bounce polarization state rotation system; a sample support; a stationary, rotatable or rotating analyser; a detector system including at least two detectors (D1, D2), wherein the detectors are selected from the group consisting of: a Golay cell; a bolometer; and a solid-state detector, wherein the detectors serve to detect radiation that has impinged on and interacted with a sample on the sample support. at least two sources of electromagnetic radiation, one being a source of terahertz frequencies selected from the group consisting of: a backward wave oscillator; a Smith-Purcell cell; a free electron laser; and a solid state source device, another being a source of infrared frequencies including an FTIR source; a backward wave oscillator; a Smith-Purcell cell; a free electron laser; and a solid state source device, means for directing electromagnetic radiation from said source of terahertz frequencies and said source of infrared frequencies along a single beam path; a polarization state generator comprising a polarization state generator exit polarizer preceded by an odd-bounce polarization state rotation system; a sample support; a stationary, rotatable or rotating analyser; a detector system including at least two detectors (D1, D2), wherein the detectors are selected from the group consisting of: a Golay cell; a bolometer; and a solid-state detector, wherein the detectors serve to detect radiation that has impinged on and interacted with a sample on the sample support. a Golay cell; a bolometer; and a solid-state detector,
An input system comprising a coordinates measurement device and a coordinates indication device (250, 850), the coordinates measurement device for measuring positions of a finger and of the coordinates indication device (250, 850), the coordinates indication device (250, 850) being different from the finger and the coordinates measurement device comprising: a channel electrode unit (210, 810) including channel electrodes, wherein capacitance of one of the channel electrodes or capacitance between the channel electrodes is changed when the finger approaches; a driver configured to apply an electrical signal to the channel electrode unit so that each of the channel electrodes of the channel electrode unit outputs a drive signal, wherein the coordinates indication device is configured to receive the drive signal and to output a resonance signal; an additional receiver (230, 820) disposed separately from the channel electrode unit, and configured to receive the resonance signal from the coordinates indication device; and a controller configured to determine an input position of the finger based on a variation in the capacitance of one of the channel electrodes or the capacitance between the channel electrodes, and to determine a position of the coordinates indication device based on the resonance signal comprising a binary code indicating the strength of the drive signal, wherein the channel electrode unit (210, 810) is further configured to capacitively couple with the coordinates indication device, and to output the drive signal to the coordinates indication device in a form of an electric field, and wherein the additional receiver (230, 820) is further configured to inductively couple with the coordinates indication device. a channel electrode unit (210, 810) including channel electrodes, wherein capacitance of one of the channel electrodes or capacitance between the channel electrodes is changed when the finger approaches; a driver configured to apply an electrical signal to the channel electrode unit so that each of the channel electrodes of the channel electrode unit outputs a drive signal, wherein the coordinates indication device is configured to receive the drive signal and to output a resonance signal; an additional receiver (230, 820) disposed separately from the channel electrode unit, and configured to receive the resonance signal from the coordinates indication device; and a controller configured to determine an input position of the finger based on a variation in the capacitance of one of the channel electrodes or the capacitance between the channel electrodes, and to determine a position of the coordinates indication device based on the resonance signal comprising a binary code indicating the strength of the drive signal, wherein the channel electrode unit (210, 810) is further configured to capacitively couple with the coordinates indication device, and to output the drive signal to the coordinates indication device in a form of an electric field, and wherein the additional receiver (230, 820) is further configured to inductively couple with the coordinates indication device.
A processor-implemented method for torsional damping of an electric traction driveline, the electric traction driveline comprising a motor, a load and a shaft connecting the motor and the load, the method comprising: operating a first Kalman filter to perform a state space estimation of a shaft torque; operating a second Kalman filter to perform a state space estimation of a load torque; and providing torsional damping of the electric traction driveline based upon the state space estimation of the shaft torque and the state space estimation of the load torque; wherein: the state space estimation of the shaft torque is based on inputs to the first Kalman filter of a torque command and a measured rotational speed of the motor; the state space estimation of the load torque is based only on an input to the second Kalman filter of the measured rotational speed of the motor; and the torsional damping is provided by a change to the torque command. operating a first Kalman filter to perform a state space estimation of a shaft torque; operating a second Kalman filter to perform a state space estimation of a load torque; and providing torsional damping of the electric traction driveline based upon the state space estimation of the shaft torque and the state space estimation of the load torque; wherein: the state space estimation of the shaft torque is based on inputs to the first Kalman filter of a torque command and a measured rotational speed of the motor; the state space estimation of the load torque is based only on an input to the second Kalman filter of the measured rotational speed of the motor; and the torsional damping is provided by a change to the torque command. the state space estimation of the shaft torque is based on inputs to the first Kalman filter of a torque command and a measured rotational speed of the motor; the state space estimation of the load torque is based only on an input to the second Kalman filter of the measured rotational speed of the motor; and the torsional damping is provided by a change to the torque command.
A medical appliance, comprising: an outer sheath adapted to enclose a self-expanding stent in an interior space before deployment of the self-expanding stent; an inner sheath (16; 120) enclosed within the outer sheath and adapted to be arranged about proximally adjacent to the self-expanding stent before deployment of the self-expanding stent; and a plurality of extensions (20a-20d; 121a-121f) coupled to a distal end of the inner sheath, the extensions adapted to be arranged between the outer sheath and the self-expanding stent before deployment of the self-expanding stent; wherein, during deployment, the outer sheath is movable proximally with respect to the inner sheath and the plurality of extensions allows the self-expanding stent to expand; and characterized by an expandable pusher (14, 15; 51, 52) adapted to abut the self-expanding stent in a contracted state and oppose a proximal shear force during deployment, wherein the expandable pusher fits flush with an inside diameter of the inner sheath. an outer sheath adapted to enclose a self-expanding stent in an interior space before deployment of the self-expanding stent; an inner sheath (16; 120) enclosed within the outer sheath and adapted to be arranged about proximally adjacent to the self-expanding stent before deployment of the self-expanding stent; and a plurality of extensions (20a-20d; 121a-121f) coupled to a distal end of the inner sheath, the extensions adapted to be arranged between the outer sheath and the self-expanding stent before deployment of the self-expanding stent; wherein, during deployment, the outer sheath is movable proximally with respect to the inner sheath and the plurality of extensions allows the self-expanding stent to expand; and characterized by an expandable pusher (14, 15; 51, 52) adapted to abut the self-expanding stent in a contracted state and oppose a proximal shear force during deployment, wherein the expandable pusher fits flush with an inside diameter of the inner sheath.
A method for modulating growth of monocotyledonous, dicotyledonous and sedge weeds in rice growing systems comprising applying to soil in said rice growing system an amount of thaxtomin effective to modulate growth of said weeds.
Sniffing leak detector comprising a handheld device with a sniffer tip probe comprising a sample gas inlet, a reference gas inlet, a gas analyzer, and a switching valve adapted to alternatingly connect the sample gas inlet to the gas analyzer and the reference gas inlet to the gas analyzer in a gas conducting manner, such that either the gas drawn through the sample gas inlet or the gas drawn through the reference gas inlet is analyzed by the gas analyzer, characterized in that the reference gas inlet is not arranged on the sniffer tip probe and thereby in a remote distance from the sample gas inlet, and the sniffing leak detector comprises a reference gas conduit, which connects the reference gas inlet and the switching valve, and further comprises a buffer chamber defining a buffer volume, which permits to homogeneously mix gas drawn into the buffer chamber through the reference gas inlet with remaining gas in the buffer chamber.
An integrated printing system comprising at least first and second adjacent electronic printers (12, 14) with outputs of printed sheets and with both simplex and duplex printing capability, including at least one of said electronic printers with an internal duplex loop path for said duplex printing capability, said first and second electronic printers having integrated outputs for cooperative shared printing of a print job, characterised by said integrated printing system including at least two inverter modules (20, 30) with one each positioned downstream of said at least first and second electronic printers, each of said at least two inverter modules including a triple mode inverter, the triple mode inverter including a U-shaped portion having a pair of upstanding leg portions (H, 28) and a bottom horizontal portion, and being configured such that: in a first mode simplexed sheets are directed into and out of the triple mode inverter in a first path bypassing the U-shaped portion; in a second mode simplexed sheets to be duplexed are directed lead edge first into a first of said pair of upstanding leg portions of said triple mode inverter and through said horizontal portion and into the second of said pair of upstanding leg portions and then out of said horizontal portion of said triple mode inverter in reverse trail edge first and into a second path to receive images on the opposite side; and in a third mode unprinted sheets are directed into and out of only the horizontal portion in a third path to have images placed thereon by a downstream electronic printer of said electronic printers.
Use of a saponin according to formula in the in-vitro delivery of a nucleic acid, a lipid, a peptide and/or a protein to a cell: wherein R 1 is a xylose residue or an arabinose residue bonded with its C1 atom to the corresponding xylose residue of formula; and R 2 is independently from other R 2 residues in the same molecule H or an acetyl residue, with the proviso that at least two acetyl residues are present in the saponin. R 1 is a xylose residue or an arabinose residue bonded with its C1 atom to the corresponding xylose residue of formula; and R 2 is independently from other R 2 residues in the same molecule H or an acetyl residue,
A guidance unit system for a ground-launched projectile, comprising: a ground-launched projectile having a longitudinal axis; and a guidance unit which can be coupled to the ground-launched projectile, said guidance unit comprising: a coupling region for coupling the guidance unit to the ground-launched projectile; and a front housing, wherein the front housing is configured to rotate relative to the coupling region about the longitudinal axis, said front housing comprising: at least two canards attached to the front housing; a motor contained within the front housing and mechanically coupled to the canards via a drive shaft, said drive shaft being orientated perpendicular to the longitudinal axis; and a bearing surrounding the motor, the bearing: being rigidly attached to the front housing such that the motor rotates with the front housing about the longitudinal axis; and preventing rotational movement of the motor relative to the front housing, thereby shielding the motor from effects of inertial loads experienced by the front housing during launch. a ground-launched projectile having a longitudinal axis; and a guidance unit which can be coupled to the ground-launched projectile, a coupling region for coupling the guidance unit to the ground-launched projectile; and a front housing, at least two canards attached to the front housing; a motor contained within the front housing and mechanically coupled to the canards via a drive shaft, said drive shaft being orientated perpendicular to the longitudinal axis; and a bearing surrounding the motor, the bearing: being rigidly attached to the front housing such that the motor rotates with the front housing about the longitudinal axis; and preventing rotational movement of the motor relative to the front housing, thereby shielding the motor from effects of inertial loads experienced by the front housing during launch. being rigidly attached to the front housing such that the motor rotates with the front housing about the longitudinal axis; and preventing rotational movement of the motor relative to the front housing, thereby shielding the motor from effects of inertial loads experienced by the front housing during launch.
A mattress system comprising a mattress with an upper face and a lower face, said upper face comprising a cavity, which is enclosed by a side face, placed adjacent one end of the mattress and shaped to accommodate at least the head of a child, where the mattress system further comprises a first mattress segment, which is arranged so that it can be placed in and fill out the cavity of the mattress, such that the upper face of the mattress appears intact and coherent, and where the mattress system also comprises additional mattress segments (10; 20, 27, 28), which, with an upper face thereof, are arranged to abut parts of the lower face of the mattress, characterised in, that the additional mattress segments (10; 20, 27, 28) comprise at least a first wedge-shaped element, which element comprises an upper face and a lower face as well as a first, a second, a third and a fourth side face connecting the upper and lower faces to each other, which upper face is inclined relatively to the lower face, which first side face is arranged to be placed diametrically opposed to the third side face, and the height of which first side face is larger than the height of which third side face, wherein the additional mattress segments (10; 20, 27, 28) comprise at least a second wedge-shaped element and a third wedge-shaped element, each of which has an outer geometry similar to the one of the first wedge-shaped element and wherein the height of the third side face of the second wedge-shaped element is substantially identical to height of the first side face of the first wedge-shaped element, and the height of the third side face of the third wedge-shaped element is substantially identical to the height of the first side face of the second wedge-shaped element.
Tappet arrangement for a radial piston pump for delivering a fluid, wherein the tappet arrangement is formed for at least indirectly supporting a pump piston against a drive shaft, which is formed for driving the radial piston pump, and has: - a circular cylindrical tappet with a tappet longitudinal axis, - a roller which is mounted rotatably in the tappet and is able to be coupled to the drive shaft, - a securing means which is formed separately from the tappet and able to be coupled mechanically to the tappet and which is arranged and formed such that movement of the roller relative to the tappet in the direction of a roller longitudinal axis is prevented, wherein the tappet is formed integrally and has: - an outer surface, extending in the same direction as the tappet longitudinal axis, for supporting the tappet in a housing of the radial piston pump, - a receptacle for the roller, wherein the securing means comprises two retaining elements (115, 116), which are each formed to be arranged, in each case at least partially, in the receptacle and are each able to be coupled to a surface (109, 110) of the roller, which surface is oriented transversely with respect to the roller longitudinal axis, wherein the retaining elements (115, 116) have been introduced into the receptacle in the direction of the tappet longitudinal axis, characterized in that the retaining elements (115, 116) are each of resilient form and are retained in the receptacle by way of the spring force. - a circular cylindrical tappet with a tappet longitudinal axis, - a roller which is mounted rotatably in the tappet and is able to be coupled to the drive shaft, - a securing means which is formed separately from the tappet and able to be coupled mechanically to the tappet and which is arranged and formed such that movement of the roller relative to the tappet in the direction of a roller longitudinal axis is prevented, wherein the tappet is formed integrally and has: - an outer surface, extending in the same direction as the tappet longitudinal axis, for supporting the tappet in a housing of the radial piston pump, - a receptacle for the roller,