mhurhangee/patent-ind-claim-en huggingface dataset:
A laser hair removal device comprising a handheld head provided with one or more first light source , and a transparent member for being placed onto a skin region to be subjected to laser hair removal, and a camera objective directed towards the transparent member , wherein the first light source and the transparent member are configured to provide frustrated total internal reflection (FTIR) based image data of the skin region; and wherein the laser hair removal device is configured to be in optical, data and electrical communication with the handheld head , the handheld head further comprises a second light source configured to provide a series of different wavelength light beams to traverse the transparent member , the device is connected to a computer when in use, the device is configured - to obtain an FTIR-based digital image data for surface mapping and - to control a direction of said different wavelength light beams, and to obtain images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams, and to calculate hair roots orientation data using k-nearest neighbor (kNN) and support vector machine (SVM) algorithms, over the obtained images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams. - to obtain an FTIR-based digital image data for surface mapping and - to control a direction of said different wavelength light beams, and to obtain images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams, and to calculate hair roots orientation data using k-nearest neighbor (kNN) and support vector machine (SVM) algorithms, over the obtained images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams.
An active control system for a moving body traveling along a guideway , comprising: at least one displacement sensor configured to measure a displacement (D, D') between a reference surface on a moving body and a fixed reference surface on a guideway side; at least one motion sensor , wherein signals from the at least one displacement sensor and the at least one motion sensor are processed to adjust a displacement (D, D') of the reference surface of the moving body from the fixed reference surface on the guideway side to maintain a desired displacement (D, D') from the fixed reference surface on the guideway side, characterized in that the active control system further comprises at least one first filter coupled to receive the signals from the at least one displacement sensor , wherein the at least one first filter comprises at least one of a low pass filter , a notch filter, or a combination of low and high pass filter ; and at least one second filter coupled to receive the signals from the at least one motion sensor , wherein the at least one second filter comprises at least one of a high pass filter , a resonator, or a bandpass filter. at least one displacement sensor configured to measure a displacement (D, D') between a reference surface on a moving body and a fixed reference surface on a guideway side; at least one motion sensor , wherein signals from the at least one displacement sensor and the at least one motion sensor are processed to adjust a displacement (D, D') of the reference surface of the moving body from the fixed reference surface on the guideway side to maintain a desired displacement (D, D') from the fixed reference surface on the guideway side, characterized in that the active control system further comprises at least one first filter coupled to receive the signals from the at least one displacement sensor , wherein the at least one first filter comprises at least one of a low pass filter , a notch filter, or a combination of low and high pass filter ; and at least one second filter coupled to receive the signals from the at least one motion sensor , wherein the at least one second filter comprises at least one of a high pass filter , a resonator, or a bandpass filter. at least one first filter coupled to receive the signals from the at least one displacement sensor , wherein the at least one first filter comprises at least one of a low pass filter , a notch filter, or a combination of low and high pass filter ; and at least one second filter coupled to receive the signals from the at least one motion sensor , wherein the at least one second filter comprises at least one of a high pass filter , a resonator, or a bandpass filter.
A method for producing resin pellets, comprising the following step 1 to step 3: step 1: discharging a molten thermoplastic resin through a die in the form of a strand to obtain a discharged strand-shaped resin; step 2: cooling the discharged strand-shaped resin using a refrigerant to obtain a cooled strand-shaped resin; and step 3: cutting the cooled strand-shaped resin to obtain resin pellets, wherein the strand-shaped resin has a diameter of 1.5 to 4.5 mm, the molten thermoplastic resin is discharged in the form of a strand at a take-off speed of 1.5 m/s to 10 m/s, the die has 10 or more die holes, and a strand interval X defined by the following Formula 2 satisfies the following Formula 1: 1.73 × a ≤ X b ≤ 2.81 × a wherein a, b and X are as defined below: a = 0.524 b = 0.367 X cm = effective die plate width cm − strand diameter cm × number of strands − 1 / number of strands − 1 wherein the effective die plate width is a maximum distance between the outerside hole center of a die hole and the outerside hole center of a die hole each at the ends of the die. step 1: discharging a molten thermoplastic resin through a die in the form of a strand to obtain a discharged strand-shaped resin; step 2: cooling the discharged strand-shaped resin using a refrigerant to obtain a cooled strand-shaped resin; and step 3: cutting the cooled strand-shaped resin to obtain resin pellets, wherein the strand-shaped resin has a diameter of 1.5 to 4.5 mm, the molten thermoplastic resin is discharged in the form of a strand at a take-off speed of 1.5 m/s to 10 m/s, the die has 10 or more die holes, and a strand interval X defined by the following Formula 2 satisfies the following Formula 1: a = 0.524 b = 0.367
An apparatus for forming a composite material , the apparatus comprising: a pressure head provided facing a magnetic field coil via a pre-reaction composite material, the magnetic field coil being provided on one side of the composite material, the pressure head being provided on another side of the composite material, the pressure head comprising a pressure head body formed of a material transparent to a magnetic field applied by a magnetic field coil ; and a magnetic field coil configured for applying a magnetic field to a pre-reaction composite material from one side of the composite material to heat the composite material , characterized in that the pressure head further comprises a high thermal conductive material layer provided on a side of the pressure head body facing the composite material , being transparent to the magnetic field applied by the magnetic field coil , and formed of a material having a thermal conductivity of 20 W/m·K or more which is higher than the thermal conductivity of the composite material . a pressure head provided facing a magnetic field coil via a pre-reaction composite material, the magnetic field coil being provided on one side of the composite material, the pressure head being provided on another side of the composite material, the pressure head comprising a pressure head body formed of a material transparent to a magnetic field applied by a magnetic field coil ; and a magnetic field coil configured for applying a magnetic field to a pre-reaction composite material from one side of the composite material to heat the composite material , characterized in that the pressure head further comprises a high thermal conductive material layer provided on a side of the pressure head body facing the composite material , being transparent to the magnetic field applied by the magnetic field coil , and formed of a material having a thermal conductivity of 20 W/m·K or more which is higher than the thermal conductivity of the composite material .
A cleaner head for a vacuum cleaner comprising: a housing configured to be movable across a floor surface, the housing having a lower face ; a suction inlet defined in the lower face of the housing; a suction passageway through the housing, the suction passageway in fluid communication with the suction inlet ; a rotatable sealing element located at a front of the housing, the rotatable sealing element having a rotational axis which is parallel to the lower face of the cleaner head, the housing at least partially surrounding the rotatable sealing element ; the cleaner head characterized by : an agitator positioned rearwards of the rotatable sealing element; wherein the suction passageway is located between the agitator and the rotatable sealing element . a housing configured to be movable across a floor surface, the housing having a lower face ; a suction inlet defined in the lower face of the housing; a suction passageway through the housing, the suction passageway in fluid communication with the suction inlet ; a rotatable sealing element located at a front of the housing, the rotatable sealing element having a rotational axis which is parallel to the lower face of the cleaner head, the housing at least partially surrounding the rotatable sealing element ; the cleaner head characterized by : an agitator positioned rearwards of the rotatable sealing element; wherein the suction passageway is located between the agitator and the rotatable sealing element . an agitator positioned rearwards of the rotatable sealing element; wherein the suction passageway is located between the agitator and the rotatable sealing element .
A uninterruptible power supply, UPS, system comprising: a first enclosure (235; 335; 435) configured to be installed in an information technology, IT, rack; a second enclosure (215A-D; 315A'-D'; 515A'-D') configured to be installed in the IT rack; wherein the second enclosure (215A-D; 315A'-D'; 515A'-D') is separate from the first enclosure (235; 335; 435); at least one uninterruptible power supply, UPS, (480A-D) positioned in the first enclosure (235; 335; 435); and a battery (485A-D) associated with the at least one UPS (480A-D) and positioned in the first enclosure (235; 335; 435); wherein the at least one UPS (480A-D) and the associated battery (485A-D) are configured to provide at least thirty seconds and no more than one minute of backup power to a load connected thereto; wherein the first enclosure (235; 335; 435') does not contain any means for cooling; and wherein the first enclosure (235; 335; 435) is configured to be connected to at least one power distribution unit, PDU, (215A-D; 315A'-D'; 515A'-D') the at least one PDU (215A-D; 315A'-D'; 515A'-D') being positioned in the second enclosure (215A-D; 315A'-D'; 515A'-D'). a first enclosure (235; 335; 435) configured to be installed in an information technology, IT, rack; a second enclosure (215A-D; 315A'-D'; 515A'-D') configured to be installed in the IT rack; wherein the second enclosure (215A-D; 315A'-D'; 515A'-D') is separate from the first enclosure (235; 335; 435); at least one uninterruptible power supply, UPS, (480A-D) positioned in the first enclosure (235; 335; 435); and a battery (485A-D) associated with the at least one UPS (480A-D) and positioned in the first enclosure (235; 335; 435); wherein the at least one UPS (480A-D) and the associated battery (485A-D) are configured to provide at least thirty seconds and no more than one minute of backup power to a load connected thereto; wherein the first enclosure (235; 335; 435') does not contain any means for cooling; and wherein the first enclosure (235; 335; 435) is configured to be connected to at least one power distribution unit, PDU, (215A-D; 315A'-D'; 515A'-D') the at least one PDU (215A-D; 315A'-D'; 515A'-D') being positioned in the second enclosure (215A-D; 315A'-D'; 515A'-D').
A target device for use in training armed personnel including: a base portion in form of a base which includes locomotion means; a humanoid target mounted to the base ; the humanoid target being configured to adopt a normally upright position and being controllable to move with respect to the base to adopt a range of rotational positions away from the normally upright position in both of a forwards direction and a backwards direction; wherein the locomotion means is for propelling the humanoid target around on uneven ground in a training area, and wherein the humanoid target is arranged to move forwards when the target device is accelerating. a base portion in form of a base which includes locomotion means; a humanoid target mounted to the base ; the humanoid target being configured to adopt a normally upright position and being controllable to move with respect to the base to adopt a range of rotational positions away from the normally upright position in both of a forwards direction and a backwards direction; wherein the locomotion means is for propelling the humanoid target around on uneven ground in a training area, and wherein the humanoid target is arranged to move forwards when the target device is accelerating.
An electronic device, comprising: a display configured to output a video; a user interface (12; 40, 50) for controlling a navigation in the video along a time axis; and a processing device coupled to the user interface (12; 40, 50) and the display , the processing device being configured, when operating in an operating mode in which an object shown in a plurality of frames of the video is selected by a user input, to determine a magnitude of a speed vector of the object , and in response to a user input action for the navigation in the video along the time axis, compute a time shift along the time axis as a product of a magnitude of the user input action and a time scaling factor which depends on the determined magnitude of the speed vector of the object to the navigation along the time axis; wherein the user interface (12; 40, 50) comprises a speed-dependent time slider and a not-scaled time slider ; wherein the magnitude of the user input action is a distance (53-56) received at the speed-dependent time slider ; wherein the time shift (43-46) computed as the product of the magnitude of the user input action and the time scaling factor is different from a further time shift defined by the same distance (53-56) of a further user input received at the not-scaled time slider . a display configured to output a video; a user interface (12; 40, 50) for controlling a navigation in the video along a time axis; and a processing device coupled to the user interface (12; 40, 50) and the display , the processing device being configured, when operating in an operating mode in which an object shown in a plurality of frames of the video is selected by a user input, to determine a magnitude of a speed vector of the object , and in response to a user input action for the navigation in the video along the time axis, compute a time shift along the time axis as a product of a magnitude of the user input action and a time scaling factor which depends on the determined magnitude of the speed vector of the object to the navigation along the time axis; determine a magnitude of a speed vector of the object , and in response to a user input action for the navigation in the video along the time axis, compute a time shift along the time axis as a product of a magnitude of the user input action and a time scaling factor which depends on the determined magnitude of the speed vector of the object to the navigation along the time axis; wherein the user interface (12; 40, 50) comprises a speed-dependent time slider and a not-scaled time slider ; wherein the magnitude of the user input action is a distance (53-56) received at the speed-dependent time slider ; wherein the time shift (43-46) computed as the product of the magnitude of the user input action and the time scaling factor is different from a further time shift defined by the same distance (53-56) of a further user input received at the not-scaled time slider .
Machine for manufacturing cables, comprising a rotor tube inside which is a motor , characterised in that the machine comprises four rods attached to the rotor tube , the rods being arranged so as to follow secant lines with respect to the cross section of the wall of the rotor tube and said machine further comprising two mutually parallel plates , each plate being connected to the four rods , the four rods being arranged such that they exert a force on the wall of the rotor tube towards the inside of the rotor tube in order to compensate for the effect of the centrifugal force, the motor being positioned between said plates .
A method implemented by a wireless transmit/receive unit, WTRU, the method comprising: receiving a new carrier type, NCT, transmission in a subframe on a NCT carrier, wherein: the NCT carrier utilizes a physical layer protocol different from a conventional carrier, the NCT transmission includes: (i) from a first demodulation reference signal, DMRS, antenna port, a first physical broadcast channel transmission and a first DMRS, and (ii) from a second DMRS antenna port, a second physical broadcast channel transmission and a second DMRS, each of the first and second physical broadcast channel transmissions has a resource structure different from a conventional physical broadcast channel transmission, and no cell-specific reference signals are present in the subframe; responsive to the NCT transmission being received, performing joint detection of (i) the first physical broadcast channel transmission and the first DMRS from the first DMRS antenna port and (ii) the second physical broadcast channel transmission and the second DMRS from the second DMRS antenna port; and demodulating the first and second physical broadcast channel transmissions using the first and second DMRS, respectively. receiving a new carrier type, NCT, transmission in a subframe on a NCT carrier, wherein: the NCT carrier utilizes a physical layer protocol different from a conventional carrier, the NCT transmission includes: (i) from a first demodulation reference signal, DMRS, antenna port, a first physical broadcast channel transmission and a first DMRS, and (ii) from a second DMRS antenna port, a second physical broadcast channel transmission and a second DMRS, each of the first and second physical broadcast channel transmissions has a resource structure different from a conventional physical broadcast channel transmission, and no cell-specific reference signals are present in the subframe; the NCT carrier utilizes a physical layer protocol different from a conventional carrier, the NCT transmission includes: (i) from a first demodulation reference signal, DMRS, antenna port, a first physical broadcast channel transmission and a first DMRS, and (ii) from a second DMRS antenna port, a second physical broadcast channel transmission and a second DMRS, (i) from a first demodulation reference signal, DMRS, antenna port, a first physical broadcast channel transmission and a first DMRS, and (ii) from a second DMRS antenna port, a second physical broadcast channel transmission and a second DMRS, each of the first and second physical broadcast channel transmissions has a resource structure different from a conventional physical broadcast channel transmission, and no cell-specific reference signals are present in the subframe; responsive to the NCT transmission being received, performing joint detection of (i) the first physical broadcast channel transmission and the first DMRS from the first DMRS antenna port and (ii) the second physical broadcast channel transmission and the second DMRS from the second DMRS antenna port; and demodulating the first and second physical broadcast channel transmissions using the first and second DMRS, respectively.
Thrust lifting device able to transmit a thrust force allowing for the lifting of loads, comprising: - at least one articulated lift column provided with at least one meshing part , and with at least one arm directed upward from the meshing part , the lift column being made up of links with a link of rank 1 at the upper end of the upwardly directed arm and current links of rank n, with n comprised between 2 and N the number of links of the lift column , - at least one rotary pinion driving the lift column by said meshing part meshing with the pinion , - at least one arm opposite the upwardly directed arm and formed by resting links , said resting links being able to pass to the meshing part and to the upwardly directed arm by rotation of the pinion , and - at least one stabilizer that is movable along the upwardly directed arm . - at least one articulated lift column provided with at least one meshing part , and with at least one arm directed upward from the meshing part , the lift column being made up of links with a link of rank 1 at the upper end of the upwardly directed arm and current links of rank n, with n comprised between 2 and N the number of links of the lift column , - at least one rotary pinion driving the lift column by said meshing part meshing with the pinion , - at least one arm opposite the upwardly directed arm and formed by resting links , said resting links being able to pass to the meshing part and to the upwardly directed arm by rotation of the pinion , and - at least one stabilizer that is movable along the upwardly directed arm .
Device for feeding sheets to a sheet-processing machine comprising at least one processing mechanism, comprising a feeder head for cyclically separating the sheets from a pile and comprising transporting suckers for transporting the sheets to a belt table , the belt table comprising at least one revolving transport belt , which is guided over at least two feed rollers (12.1, 12.2, 12.3, 12.4, 12.5), a first drive being assigned to at least one feed roller (12.1, 12.2, 12.3, 12.4, 12.5), and a sheet flap, which is connected to a pivotably mounted shaft, being provided between the transporting suckers and the at least one transport belt , a second drive being assigned to the shaft pivoting the same, comprising a sheet arrival sensor, which is arranged between the belt table and the processing mechanism and generates first signals representing the arrival of the sheets for a sequence of sheets, comprising a clock generator, which generates second signals representing the angular position of the at least one processing mechanism, and comprising a controller, which controls the first drive as a function of the second signals, and which controls the second drive as a function of the first and second signals, characterized in that respective clock-based speed profiles are entered into the controller for controlling the first and second drives . a first drive being assigned to at least one feed roller (12.1, 12.2, 12.3, 12.4, 12.5), and a sheet flap, which is connected to a pivotably mounted shaft, being provided between the transporting suckers and the at least one transport belt , a second drive being assigned to the shaft pivoting the same, comprising a sheet arrival sensor, which is arranged between the belt table and the processing mechanism and generates first signals representing the arrival of the sheets for a sequence of sheets, comprising a clock generator, which generates second signals representing the angular position of the at least one processing mechanism, and comprising a controller, which controls the first drive as a function of the second signals, and which controls the second drive as a function of the first and second signals, characterized in that respective clock-based speed profiles are entered into the controller for controlling the first and second drives .