mhurhangee/patent-ind-claim-en huggingface dataset:
Mixing element for a static mixer , in particular a dental static mixer, for mixing low-to high-viscosity components, comprising a flat middle part extending along a longitudinal axis L and having a front side and a rear side opposite the front side , characterized in that at least two flow influencing elements are arranged on the front side and/or on the rear side of the middle part , each of the flow influencing elements enclosing at least one passage opening (101.1, 101.2, 102.1, 102.2) located in the middle part , characterized in that the flow-influencing elements having the form of prism shells standing substantially perpendicularly on the front side and/or the rear side , which overlap or are connected to one another in pairs at a respective side edge (1011A/1023A, 1011B/ 1023B). comprising a flat middle part extending along a longitudinal axis L and having a front side and a rear side opposite the front side , characterized in that at least two flow influencing elements are arranged on the front side and/or on the rear side of the middle part , each of the flow influencing elements enclosing at least one passage opening (101.1, 101.2, 102.1, 102.2) located in the middle part , characterized in that the flow-influencing elements having the form of prism shells standing substantially perpendicularly on the front side and/or the rear side , which overlap or are connected to one another in pairs at a respective side edge (1011A/1023A, 1011B/ 1023B).
A tube scraping tool comprising: a handle ; and a blade , carried by the handle , wherein: t he tool has first and second laterally spaced apart portions for engaging the tube outer diameter (OD) surface during a drawing of the tool along the tube ; characterized in that the underside of the handle is formed of a generally channel-like section having first and second side rails and having a base surface , t he first portion is a leading portion of the first side rail ; t he second portion is a leading portion of the second side rail ; t he first and second side rails each have a respective trailing portion ; t he respective leading portion is higher than the respective trailing portion ,and in that t he blade has a cutting edge positioned to trail the first and second portions during the drawing and laterally between the first and second side rails . a handle ; and a blade , carried by the handle , t he tool has first and second laterally spaced apart portions for engaging the tube outer diameter (OD) surface during a drawing of the tool along the tube ; characterized in that the underside of the handle is formed of a generally channel-like section having first and second side rails and having a base surface , t he first portion is a leading portion of the first side rail ; t he second portion is a leading portion of the second side rail ; t he first and second side rails each have a respective trailing portion ; t he respective leading portion is higher than the respective trailing portion ,and in that t he blade has a cutting edge positioned to trail the first and second portions during the drawing and laterally between the first and second side rails .
Overrunning clutch device in a starter device for internal combustion engines, having a carrier which is connected via a transmission to an armature shaft and to an output shaft which is a carrier of a starter pinion , wherein a portion of the carrier forms a transmission carrier of the transmission , wherein the transmission carrier of the carrier and a carrier plate connected to the output shaft are designed as separate components, which are coupled in a torque-transmitting manner, wherein the transmission carrier and the carrier plate consist of different materials, characterized in that the carrier plate consists of a high-strength material and the transmission carrier of a less high-strength material, wherein the transmission carrier is formed from sintered material or from metal.
A method for monitoring a mixing of at least a first medium and a second medium in a container from automation technology based on a measurement probe , the method comprising the following method steps: filling the medium into the container , determining the electrical conductivity (σ) in a conductive operating mode of the measurement probe and of the dielectric constant (ε) in a capacitive operating mode of the measurement probe , recording the temporal progression of the electrical conductivity (σ) and of the dielectric constant (ε), determining whether the measurement probe is at least partially in contact with the first medium , wherein it is checked whether a predefinable fill level of the first medium in the container is reached, wherein the second medium is then filled into the container and the monitoring of the mixing is performed, and monitoring at least the mixing of the media , taking place inside the container , based on the temporal progression of the electrical conductivity (σ) and the dielectric constant (ε). filling the medium into the container , determining the electrical conductivity (σ) in a conductive operating mode of the measurement probe and of the dielectric constant (ε) in a capacitive operating mode of the measurement probe , recording the temporal progression of the electrical conductivity (σ) and of the dielectric constant (ε), determining whether the measurement probe is at least partially in contact with the first medium , wherein it is checked whether a predefinable fill level of the first medium in the container is reached, wherein the second medium is then filled into the container and the monitoring of the mixing is performed, and
Use of a filling system for filling a component with an operating material, comprising a mixing unit which has a primary supply line , an outlet line , and at least one secondary supply line , wherein the primary supply line is conceived for providing a basic additive feed; and wherein the basic additive feed is fed by way of the at least one secondary supply line ; and wherein the filling system comprises a metering installation which is conceived for setting supply flows from and/or in the supply lines into the mixing unit in such a manner that a predefined mixing ratio is able to be set in a component to be filled; wherein the primary supply line is conceived for providing a larger supply flow than the at least one secondary supply line ; and wherein the fluid flows in the supply lines by means of a control logic are controlled by open loop and/or closed loop in such a manner that the basic additive feed continues after the secondary supply lines have been switched off.
An ultrasonic sensor comprising: a casing ; and a piezoelectric vibrator element , wherein the casing includes first and second units , , the first unit being made of a metal, the second unit being made of a resin, the first unit is formed in a cylindrical shape extending in a first direction, and the second unit is connected to one end of the first unit in the first direction and includes a cylindrical section and a bottom plate , the cylindrical section extending in the first direction, the bottom plate being a disk-like portion which closes an end of the cylindrical section positioned farther away from the first unit in the first direction, the piezoelectric vibrator element being mounted on the bottom plate , characterized in that : the bottom plate includes a bottom-plate first layer and a bottom-plate second layer ; the bottom-plate first layer is made of carbon fiber reinforced plastic, CFRP, and is positioned at a side of the bottom plate closer to the first unit in the first direction; and the bottom-plate second layer is made of a resin different from CFRP and is positioned at a side of the bottom plate farther away from the first unit in the first direction. a casing ; and a piezoelectric vibrator element , wherein the casing includes first and second units , , the first unit being made of a metal, the second unit being made of a resin, the first unit is formed in a cylindrical shape extending in a first direction, and the second unit is connected to one end of the first unit in the first direction and includes a cylindrical section and a bottom plate , the cylindrical section extending in the first direction, the bottom plate being a disk-like portion which closes an end of the cylindrical section positioned farther away from the first unit in the first direction, the piezoelectric vibrator element being mounted on the bottom plate , characterized in that : the bottom plate includes a bottom-plate first layer and a bottom-plate second layer ; the bottom-plate first layer is made of carbon fiber reinforced plastic, CFRP, and is positioned at a side of the bottom plate closer to the first unit in the first direction; and the bottom-plate second layer is made of a resin different from CFRP and is positioned at a side of the bottom plate farther away from the first unit in the first direction. the bottom plate includes a bottom-plate first layer and a bottom-plate second layer ; the bottom-plate first layer is made of carbon fiber reinforced plastic, CFRP, and is positioned at a side of the bottom plate closer to the first unit in the first direction; and the bottom-plate second layer is made of a resin different from CFRP and is positioned at a side of the bottom plate farther away from the first unit in the first direction.
A device for curing a coating substance inside a pipe, the device comprising a flexible shaft disposed at least partially inside a duct , an air inlet channel between the flexible shaft and the duct , a body attached to the duct , a heat sink in connection with the body and defining a plurality of cooling channels which are in fluid connection with the air inlet channel , and a plurality of light emitting devices configured to be cooled by the heat sink , wherein the device further comprises an air outlet channel in fluid connection with the cooling channels of the heat sink , and the air outlet channel exits the body from the same side of the body as the air inlet channel enters the body , wherein the air outlet channel is a through-hole in the body , characterized in that the air outlet channel is parallel to the air inlet channel or the length direction (L) of the device, where air is configured to flow in the air inlet channel to an opposite direction to the air flowing in the air outlet channel . a flexible shaft disposed at least partially inside a duct , an air inlet channel between the flexible shaft and the duct , a body attached to the duct , a heat sink in connection with the body and defining a plurality of cooling channels which are in fluid connection with the air inlet channel , and a plurality of light emitting devices configured to be cooled by the heat sink , wherein the device further comprises an air outlet channel in fluid connection with the cooling channels of the heat sink , and the air outlet channel exits the body from the same side of the body as the air inlet channel enters the body , wherein the air outlet channel is a through-hole in the body , characterized in that the air outlet channel is parallel to the air inlet channel or the length direction (L) of the device, where air is configured to flow in the air inlet channel to an opposite direction to the air flowing in the air outlet channel .
Method of predicting whether an approaching passenger intends to travel on a passenger moving system comprising an escalator or a moving walk respectively comprising at least one movable pallet , comprising the method steps: - positioning at least one monitoring device in the vicinity of the passenger moving system and monitoring, by the at least one monitoring device, a detection area (A1, A2) wherein the detection area comprises at least a first detection area (A1); - detecting a passenger in the at least first detection area (A1); - monitoring a trajectory (t) of the passenger ; - providing via algorithms a predicted trajectory (t) of the passenger , based on the monitored trajectory, which predicted trajectory reaches an entrance to the passenger moving system ; wherein the monitoring device monitors a second detection area (A2), wherein the second detection area (A2) is larger than the first detection area (A1); and - triggering a response at a control unit of the passenger moving system in response to the predicted trajectory (t) reaching the entrance to the passenger moving system , such that the passenger moving system starts based on the predicted trajectory (t) of the passenger if the passenger travels from the second area (A2) to the first area (A1). - positioning at least one monitoring device in the vicinity of the passenger moving system and monitoring, by the at least one monitoring device, a detection area (A1, A2) wherein the detection area comprises at least a first detection area (A1); - detecting a passenger in the at least first detection area (A1); - monitoring a trajectory (t) of the passenger ; - providing via algorithms a predicted trajectory (t) of the passenger , based on the monitored trajectory, which predicted trajectory reaches an entrance to the passenger moving system ; wherein the monitoring device monitors a second detection area (A2), wherein the second detection area (A2) is larger than the first detection area (A1); and - triggering a response at a control unit of the passenger moving system in response to the predicted trajectory (t) reaching the entrance to the passenger moving system , such that the passenger moving system starts based on the predicted trajectory (t) of the passenger if the passenger travels from the second area (A2) to the first area (A1).
A streamer comprising one or more streamer sections, each streamer section having a plurality of sensors mounted along it and a plurality of output points to which data from a group of the sensors is input, the sensors including: a plurality of first sensor groups, each first sensor group comprising a minimum of 3 and a maximum of 7 sensors and being configured to feed data to one of the output points, wherein the output points fed by the first sensor groups are spaced at an average of between 5 and 30 meters apart along the streamer; and a plurality of second sensor groups each comprising fewer sensors than the number of sensors in each of the first sensor groups, the second sensor groups being positioned between adjacent first sensor groups along the streamer section and each being configured to feed data to one output point, characterized in that the output points for the first and second groups are configured to forward for processing sensor data associated with a signal having a frequency above a threshold frequency and only the output points associated with the first sensor groups are configured to forward for processing data associated with a signal having a frequency at or below the threshold frequency. a plurality of first sensor groups, each first sensor group comprising a minimum of 3 and a maximum of 7 sensors and being configured to feed data to one of the output points, wherein the output points fed by the first sensor groups are spaced at an average of between 5 and 30 meters apart along the streamer; and a plurality of second sensor groups each comprising fewer sensors than the number of sensors in each of the first sensor groups, the second sensor groups being positioned between adjacent first sensor groups along the streamer section and each being configured to feed data to one output point, characterized in that the output points for the first and second groups are configured to forward for processing sensor data associated with a signal having a frequency above a threshold frequency and only the output points associated with the first sensor groups are configured to forward for processing data associated with a signal having a frequency at or below the threshold frequency.
A loudspeaker device comprising: a micro-electromechanical unit comprising: a diaphragm having a planar extension, the diaphragm comprising a semiconductor structure comprising a first and a second layer, each layer extending in the planar extension, wherein the first layer comprises Al(1-x)Ga(x)N, wherein 0.2 ≤ x ≤ 0.4, and the second layer comprises GaN, wherein the diaphragm is arranged to oscillate in an extension transverse to the planar extension to thereby generate sound waves, and wherein a calibrating weight is arranged on a surface of the diaphragm , a support structure supporting the diaphragm , and an electrode connected to the diaphragm; and a resonant box. a micro-electromechanical unit comprising: a diaphragm having a planar extension, the diaphragm comprising a semiconductor structure comprising a first and a second layer, each layer extending in the planar extension, wherein the first layer comprises Al(1-x)Ga(x)N, wherein 0.2 ≤ x ≤ 0.4, and the second layer comprises GaN, wherein the diaphragm is arranged to oscillate in an extension transverse to the planar extension to thereby generate sound waves, and wherein a calibrating weight is arranged on a surface of the diaphragm , a support structure supporting the diaphragm , and an electrode connected to the diaphragm; and a diaphragm having a planar extension, the diaphragm comprising a semiconductor structure comprising a first and a second layer, each layer extending in the planar extension, wherein the first layer comprises Al(1-x)Ga(x)N, wherein 0.2 ≤ x ≤ 0.4, and the second layer comprises GaN, wherein the diaphragm is arranged to oscillate in an extension transverse to the planar extension to thereby generate sound waves, and wherein a calibrating weight is arranged on a surface of the diaphragm , a support structure supporting the diaphragm , and an electrode connected to the diaphragm; and a resonant box.
A device for hanging at least one fabric for producing a false wall with stretched fabric(s) comprising: a first profile forming a rail profile comprising at least one receiving groove of U-shaped cross-section delimited by at least two lateral walls , one of the said walls comprising a longitudinal shoulder , and at least one second profile , capable of being removably fitted into the receiving groove of the first profile , said second profile having a U-shaped cross-section defining a first and a second arm, the first arm comprising at least one deformable longitudinal projection , the second profile has a form that is substantially complementary to that of the receiving groove , characterised in that the second arm of the second profile has a smaller width than the first arm, the width being determined so that the free end of the second arm comes to bear on the shoulder when the second profile is in place in the receiving groove , and in that the deformable longitudinal projection of the first arm is arranged to come to bear against the wall of the receiving groove carrying the shoulder when the second profile is in place in the receiving groove of the first profile . a first profile forming a rail profile comprising at least one receiving groove of U-shaped cross-section delimited by at least two lateral walls , one of the said walls comprising a longitudinal shoulder , and at least one second profile , capable of being removably fitted into the receiving groove of the first profile , said second profile having a U-shaped cross-section defining a first and a second arm, the first arm comprising at least one deformable longitudinal projection , the second profile has a form that is substantially complementary to that of the receiving groove , characterised in that the second arm of the second profile has a smaller width than the first arm, the width being determined so that the free end of the second arm comes to bear on the shoulder when the second profile is in place in the receiving groove , and in that the deformable longitudinal projection of the first arm is arranged to come to bear against the wall of the receiving groove carrying the shoulder when the second profile is in place in the receiving groove of the first profile .
Crankshaft for a refrigerant compressor, the crankshaft comprising at least - a cylindrical shaft element , - a crankpin for driving a compressor piston of the refrigerant compressor, and - means for conveying lubricant from a lower end region of the shaft element facing away from the crankpin in the direction toward the crankpin to supply lubricant to movable parts of the refrigerant compressor, characterized in that at least a surface section of a surface of the crankshaft comprises at least one flow disruptor, which flow disruptor is adapted due to its geometry and/or texture to destroy vapor bubbles and/or gas bubbles in the lubricant flowing around the crankshaft in an operating state of the refrigerant compressor. - a cylindrical shaft element , - a crankpin for driving a compressor piston of the refrigerant compressor, and - means for conveying lubricant from a lower end region of the shaft element facing away from the crankpin in the direction toward the crankpin to supply lubricant to movable parts of the refrigerant compressor,
A method for voice anonymization in an audio- or videoconferencing session, the method comprising: - receiving a plurality of input audio samples comprising speech: - calculating a frequency spectrum of each the plurality of input audio samples; - calculating a smoothed spectral magnitude envelope of a first of the plurality of frequency spectrums to determine a plurality of formant features of the speech, each of the plurality of formant features being located at different frequencies in the frequency spectrum; - determining one random scaling factor for the audio- or videoconferencing session; - determining, based on the one random scaling factor, a voice anonymization function shifting the formant location of at least one of the plurality of formants; and - applying the voice anonymization function on the frequency spectrum of each the subsequent plurality of input audio samples in the audio- or videoconferencing session. - receiving a plurality of input audio samples comprising speech: - calculating a frequency spectrum of each the plurality of input audio samples; - calculating a smoothed spectral magnitude envelope of a first of the plurality of frequency spectrums to determine a plurality of formant features of the speech, each of the plurality of formant features being located at different frequencies in the frequency spectrum; - determining one random scaling factor for the audio- or videoconferencing session; - determining, based on the one random scaling factor, a voice anonymization function shifting the formant location of at least one of the plurality of formants; and - applying the voice anonymization function on the frequency spectrum of each the subsequent plurality of input audio samples in the audio- or videoconferencing session. - calculating a frequency spectrum of each the plurality of input audio samples; - calculating a smoothed spectral magnitude envelope of a first of the plurality of frequency spectrums to determine a plurality of formant features of the speech, each of the plurality of formant features being located at different frequencies in the frequency spectrum; - determining one random scaling factor for the audio- or videoconferencing session; - determining, based on the one random scaling factor, a voice anonymization function shifting the formant location of at least one of the plurality of formants; and - applying the voice anonymization function on the frequency spectrum of each the subsequent plurality of input audio samples in the audio- or videoconferencing session.