mhurhangee/ep-ind-claims huggingface dataset:
A composition curable on demand under the triggering action of UV-visible to near-infrared irradiation comprising: (a) at least one polyfunctional cyclic ether component comprising at least two cyclic ether moieties; (b) at least one polyfunctional amine component comprising at least two primary or secondary amine moieties; and (c) a photoinitiating system generating catalytic species comprising: - at least one suitable photoinitiator or photosensitizer that absorbs light at the desired UV-visible to near-infrared irradiation under which the composition is to be cured; - at least one oxidation agent able to react with the photoinitiator or the photosensitizer, selected from iodonium salts, sulfonium salts and thianthrenium salts. (a) at least one polyfunctional cyclic ether component comprising at least two cyclic ether moieties; (b) at least one polyfunctional amine component comprising at least two primary or secondary amine moieties; and (c) a photoinitiating system generating catalytic species comprising: - at least one suitable photoinitiator or photosensitizer that absorbs light at the desired UV-visible to near-infrared irradiation under which the composition is to be cured; - at least one oxidation agent able to react with the photoinitiator or the photosensitizer, selected from iodonium salts, sulfonium salts and thianthrenium salts. - at least one suitable photoinitiator or photosensitizer that absorbs light at the desired UV-visible to near-infrared irradiation under which the composition is to be cured; - at least one oxidation agent able to react with the photoinitiator or the photosensitizer, selected from iodonium salts, sulfonium salts and thianthrenium salts.
A method comprising: inserting a first portion (28P2) of a workpiece material between an upper layer and a lower layer of a workpiece support material; folding a second portion of the workpiece material over and on top of the upper layer of the workpiece support material, the second portion coupled to the first portion; and inserting the workpiece material and the workpiece support material into an electronic cutting machine. inserting a first portion (28P2) of a workpiece material between an upper layer and a lower layer of a workpiece support material; folding a second portion of the workpiece material over and on top of the upper layer of the workpiece support material, the second portion coupled to the first portion; and inserting the workpiece material and the workpiece support material into an electronic cutting machine.
Capsule filling machine for filling medicaments, comprising a cleaning apparatus for cleaning the filling machine, comprising - a supply unit for feeding a cleaning medium, - a cleaning unit which is connected to the supply unit, wherein the cleaning unit is mounted on a bearing and is arranged so as to be rotatable about an axis of rotation of the bearing, and - a drive which is designed to rotate the cleaning unit about the axis of rotation of the bearing. - a supply unit for feeding a cleaning medium, - a cleaning unit which is connected to the supply unit, wherein the cleaning unit is mounted on a bearing and is arranged so as to be rotatable about an axis of rotation of the bearing, and - a drive which is designed to rotate the cleaning unit about the axis of rotation of the bearing.
A method of producing a semiconductor device, the method comprising: collectively forming an insulating film and an organic semiconductor film by applying, onto a base substrate, a solution including a polymer and at least one compound of a compound represented by General Formula 1, a compound represented by General Formula 2, a compound represented by General Formula 3, a compound represented by General Formula 4, a compound represented by General Formula 5, a compound represented by General Formula 6, and a compound represented by General Formula 7, the insulating film containing the polymer, and the organic semiconductor film being formed on the insulating film and containing the at least one compound. (where R is a linear or branched alkyl group) (where R is a linear or branched alkyl group) (where R is a linear or branched alkyl group) (where R is an alkyl group, and a number of R's is 2 to 5) (where R is an alkyl group, and a number of R's is 1 to 5) (where R is an alkyl group, and a number of R's is 1 to 5) (where A1 and A2 are represented by Formula 8) (where R is an alkyl group or another substituent, and a number of R's is 1 to 5)
A transmitter for an optical network unit, comprising: a 2.5Gb/s direct modulation laser, for generating an uplink optical signal; wherein the direct modulation laser is driven by a modulation current and a bias current, and the bias current is configured to be greater than a threshold current of the direct modulation laser, and an amplitude of the modulation current is configured such that a difference between a frequency of 1 bit and a frequency of 0 bit of the uplink optical signal is a half of a transmission rate of the uplink optical signal. a 2.5Gb/s direct modulation laser, for generating an uplink optical signal; wherein the direct modulation laser is driven by a modulation current and a bias current, and the bias current is configured to be greater than a threshold current of the direct modulation laser, and an amplitude of the modulation current is configured such that a difference between a frequency of 1 bit and a frequency of 0 bit of the uplink optical signal is a half of a transmission rate of the uplink optical signal.
A camera system comprising a portable, hand-held thermal imaging camera comprising an infrared, IR, lens assembly having an associated IR sensor for detecting thermal images of a target scene; a display; a user interface; a processor; and at least one additional, non-IR, sensor (460, 466), the additional sensor (460, 466) configured to provide measurement data to the processor, the processor analyzing whether the measurement data satisfies a predetermined requirement and causing the camera to prompt a user via the display in response to the measurement data when the measurement data satisfies the predetermined requirement; characterized in that the camera system is configured to: receive annotation data from the user, via the user interface, in response to the prompt; and store the annotation data in association with a captured image such that the received annotation data is recallable when the captured image is recalled. receive annotation data from the user, via the user interface, in response to the prompt; and store the annotation data in association with a captured image such that the received annotation data is recallable when the captured image is recalled.
An electronic device, comprising: multiple microphones (110-1, 110-2, 110-3, 110-4) configured to receive sounds generated by multiple sound sources; a communication unit configured to communicate with a voice recognition server; and a processor configured to: identify a direction in which each of the multiple sound sources is located with reference to the electronic device, on the basis of multiple audio signals received from the multiple microphones, identify at least one target sound source among the multiple sound sources on the basis of a duration for which the identified direction of each of the multiple sound sources is maintained, and control the communication unit to transmit, to the voice recognition server, an audio signal of a target sound source from which a predetermined voice is generated among the at least one target sound source, wherein the electronic device is characterized in that the processor is configured to identify at least one sound source of which the duration is less than a predetermined time among the multiple sound sources as the at least one target sound source. multiple microphones (110-1, 110-2, 110-3, 110-4) configured to receive sounds generated by multiple sound sources; a communication unit configured to communicate with a voice recognition server; and a processor configured to: identify a direction in which each of the multiple sound sources is located with reference to the electronic device, on the basis of multiple audio signals received from the multiple microphones, identify at least one target sound source among the multiple sound sources on the basis of a duration for which the identified direction of each of the multiple sound sources is maintained, and control the communication unit to transmit, to the voice recognition server, an audio signal of a target sound source from which a predetermined voice is generated among the at least one target sound source, identify a direction in which each of the multiple sound sources is located with reference to the electronic device, on the basis of multiple audio signals received from the multiple microphones, identify at least one target sound source among the multiple sound sources on the basis of a duration for which the identified direction of each of the multiple sound sources is maintained, and control the communication unit to transmit, to the voice recognition server, an audio signal of a target sound source from which a predetermined voice is generated among the at least one target sound source, wherein the electronic device is characterized in that the processor is configured to identify at least one sound source of which the duration is less than a predetermined time among the multiple sound sources as the at least one target sound source.
A method of in-situ regeneration of a rotary sorption concentrator comprising the steps of: rotating a sorbent concentrator media in a housing so that during a cycle of operation the media passes sequentially through a plurality of treatment zones (12,13,14), including a process zone, a regeneration zone and a desorption zone, all being bounded and defined by seal structures in the housing extending radially along the faces of the media and about its periphery; and passing a regeneration fluid stream at a temperature in excess of 315°C, (600°F) and up to 540°C (1000°F) through the media in said regeneration zone to volitize, destroy and decompose retained VOC's in the media; wherein said regeneration zone is embedded within the desorption zone and defines an area of the media treated in the regeneration zone during a regeneration cycle that matches or extends beyond the area of media available in the process zone for adsorbing VOCs, whereby the regeneration zone exposes the entire area of the media exposed in the process zone to the regeneration fluid stream. rotating a sorbent concentrator media in a housing so that during a cycle of operation the media passes sequentially through a plurality of treatment zones (12,13,14), including a process zone, a regeneration zone and a desorption zone, all being bounded and defined by seal structures in the housing extending radially along the faces of the media and about its periphery; and passing a regeneration fluid stream at a temperature in excess of 315°C, (600°F) and up to 540°C (1000°F) through the media in said regeneration zone to volitize, destroy and decompose retained VOC's in the media;
A method implemented by a computing device having a memory and a motion detection sensor, the memory storing an input model associated with a gesture input corresponding to a predefined motion of the computing device, wherein the input model includes expected parameter ranges for one or more sensor inputs over a sample duration, corresponding with an expected pattern of device motion, wherein the input model defines one or more criteria associated with characteristics of a detected motion, wherein the one or more criteria of the input model comprises displacement and speed of the detected motion, the method comprising: detecting a motion of the computing device; matching the detected motion with the input model; determining a confidence level associated with the match by comparing the detected motion with the input model, wherein matching the detected motion with the input model and determining the confidence level are based on individual comparison of the one or more criteria of the input model against the detected motion and combining the compared criteria, by comparing displacement and speed of the detected motion with the predefined motion associated with the input model, wherein each of the criteria for each sensor input is considered individually, and each of the sensor inputs and each of the criteria are applied with a corresponding weighting factor when combining the criteria; if the confidence level is above a pre-determined threshold, performing an action associated with the gesture input; and if the confidence level is below the pre-determined threshold, performing the action responsive to receiving a positive confirmation of the gesture input. detecting a motion of the computing device; matching the detected motion with the input model; determining a confidence level associated with the match by comparing the detected motion with the input model, wherein matching the detected motion with the input model and determining the confidence level are based on individual comparison of the one or more criteria of the input model against the detected motion and combining the compared criteria, by comparing displacement and speed of the detected motion with the predefined motion associated with the input model, wherein each of the criteria for each sensor input is considered individually, and each of the sensor inputs and each of the criteria are applied with a corresponding weighting factor when combining the criteria; if the confidence level is above a pre-determined threshold, performing an action associated with the gesture input; and if the confidence level is below the pre-determined threshold, performing the action responsive to receiving a positive confirmation of the gesture input.
A vacuum recycling apparatus for refining solar grade polysilicon, comprising a vacuum degassing device 1 and a vacuum recycling device 2, wherein the VD device 1 comprises a vacuum chamber 11, a silicon-stored bucket 12, a plasma gun 14, and an inert gas introduction device 13; the vacuum chamber 11 comprises a first degassing outlet 111 and a joining opening 112; the silicon-stored bucket 12 is positioned in the vacuum chamber 11 and beneath the joining opening 112 for storing liquid silicon solution L or for storing solid silicon; the plasma gun 14 is operable to remove impurities of the silicon solution L in the silicon-stored bucket 12; the inert gas introduction device 13 is configured in the silicon-stored bucket 12; the RH device 2 comprises a second degassing outlet 21 and a connection pipe 22; the connection pipe 22 is plugged into the silicon-stored bucket 12 through the joining opening 112; the joining opening 112 is tightly sealed so that introduced inert gas by the inert gas introduction device 13 moves towards the connection pipe 22; and by vacuuming the VD device 1 and the RH device 2 through the first and second degassing outlets 111 and 21, respectively, and by adjusting the degrees of vacuum of the VD device 1 and the RH device 2, the height of the liquid silicon solution L in the RH device 2 is controlled.
A lawn tractor comprising a chassis supported on wheels (3, 4); a drive means; a mower unit and a grass hopper located at the rear end of the lawn tractor, that grass hopper being connected to the mower unit by a discharge channel which has a ejection opening adapted to be closed by closure means for cloggings, characterized in that the ejection channel is subdivides in longitudinal direction and comprises an upper portion and a lower portion, said lower portion being slidably guided relative to the upper portion in the longitudinal direction of the ejection channel, such that the lower portion is adapted to be shifted at least partially into the grass hopper to open the lower side of the ejection channel in a region adjacent to the mower unit, and in that actuating means (9, 16, 17) are provided for shifting the lower portion relative to the upper portion of the ejection channel, said actuating means (9, 16, 17) being operable from the seat of the driver.
A method of feeding beads to a filter manufacturing machine comprising a container for beads, a bead feeding unit provided with bead streams supply channels, a unit for transferring the beads in a tobacco industry system, where the beads from holding pockets of the bead feeding unit are delivered to receiving pockets of the bead transfer unit, in which beads are supplied from the bead container to a plurality of channels of the bead transfer unit comprising the holding pockets; beads are fed from the holding pockets of the bead feeding unit to the receiving pockets of the bead transfer unit by means of movable feeding means; beads are transferred from the receiving pockets to a delivery wheel by means of movable guiding means (5, 6), characterized in that the movable feeding means is a cam. beads are supplied from the bead container to a plurality of channels of the bead transfer unit comprising the holding pockets; beads are fed from the holding pockets of the bead feeding unit to the receiving pockets of the bead transfer unit by means of movable feeding means; beads are transferred from the receiving pockets to a delivery wheel by means of movable guiding means (5, 6), characterized in that the movable feeding means is a cam.
Airbag control device, wherein the airbag control device is embodied in such a way that it generates at least one actuation signal (A1, A2) for an actuation time (t A) as a function of at least one sensor signal, wherein the airbag control device is also embodied in such a way that in the event of failure of a voltage supply it can maintain the at least one actuation signal (A1, A2) for a holding time (t H), wherein the airbag control device is embodied with at least one non-volatile memory in which the generation of the at least one actuation signal (A1, A2) can be stored, characterized in that the airbag control device is embodied in such a way that when the at least one actuation signal (A1, A2) is generated, a status signal is stored in the at least one non-volatile memory or in a further non-volatile memory, which status signal is deleted again if the at least one actuation signal (A1, A2) was generated for longer than a storage time (t S), wherein the storage time (t S) is longer than the holding time (t H) and less than/equal to the actuation time (t A), wherein when the airbag control device is powered up an actuation signal is transmitted again for a second actuation time if the status signal is still set.
A joining method of a knitted fabric using a flat knitting machine, which includes at least a front and a back needle bed and a first yarn feeder and a second yarn feeder for supplying a knitting yarn to the needle beds and in which stitches are transferrable between the front and back needle beds, for sequentially joining a first knitted fabric portion, which is knitted using the first yarn feeder, and a second knitted fabric portion, which is knitted using the second yarn feeder in parallel to a wale direction of the first knitted fabric portion, from a side close to a boundary portion of the knitted fabric portions; the method characterized in that, after performing tubular knitting on the knitting needles of the front and back needle beds including the knitting needles, on which stitches of one part of the first knitted fabric portion and stitches of one part of the second knitted fabric portion located near the boundary portion are held, using the first yarn feeder to join one part of the knitted fabric portions (3L, 2), step α of moving all the stitches formed by the tubular knitting and all the stitches of the first knitted fabric portion toward the second knitted fabric portion to overlap some of the stitches formed by the tubular knitting with some of the stitches of the second knitted fabric portion; step β of moving all the stitches of the first knitted fabric portion toward the second knitted fabric portion to overlap some of the stitches of the first knitted fabric portion with some of the stitches formed by the tubular knitting; and step γ of performing tubular knitting having double stitches (61, 62) formed by the step α and double stitches (63, 64) formed by the step β as both ends using the first yarn feeder are repeated, wherein a flechage knitting for forming a new stitch row following in a wale direction of the first knitted fabric portion is carried out using the first yarn feeder at least once in the middle of the repetition.
A method for simulating a three-phase electric motor by means of a load emulator, the load connections of the load emulator being connected in three phases to the feed connections of a motor controller and the load emulator comprising emulator power electronics and an emulator controller for controlling the emulator power electronics, the emulator controller determining the feed connections controlled by the motor controller and the non-controlled feed connections, and the emulator power electronics being actuated by the emulator controller such that phase currents i emulate calculated by the emulator controller on the basis of a motor model flow in the feed connections actuated by the motor controller, and that a phase voltage V emulate calculated by the emulator controller on the basis of a motor model is applied to the feed connection not actuated by the motor controller, characterized in that the load emulator comprises a switching means by means of which the emulator power electronics can be disconnected with high impedance from the feed connections and by means of which the emulator power electronics can be connected with low impedance to the feed connections, so that it is possible to effectively electrically disconnect the emulator power electronics from the motor controller, whereby an interaction between the motor controller and the emulator power electronics is prevented, and wherein the feed connections are connected to each other by means of a high-impedance resistor network, and that for simulating selected operating states of the electric motor, the emulator power electronics are disconnected with high impedance from the feed connections by means of the switching means, or the emulator power electronics already disconnected at high impedance from the feed connections are connected to the feed connections at low impedance by means of the switching means.