mhurhangee/ep-ind-claims huggingface dataset:
A headphone driver comprising: a yoke that has a bottom surface and an erected surface that is erected in a perpendicular direction with respect to the bottom surface, and that is formed using a magnetic material; a bonded magnet unit consisting of a bonded magnet that is provided on the bottom surface of the yoke; and a voice coil arranged between the erected surface of the yoke and a side surface of the bonded magnet unit, wherein the magnetic flux of the bonded magnet unit is concentrated on the side surface of the bonded magnet unit facing the erected surface of the yoke and curves from the bottom surface towards the voice coil. a yoke that has a bottom surface and an erected surface that is erected in a perpendicular direction with respect to the bottom surface, and that is formed using a magnetic material; a bonded magnet unit consisting of a bonded magnet that is provided on the bottom surface of the yoke; and a voice coil arranged between the erected surface of the yoke and a side surface of the bonded magnet unit, wherein the magnetic flux of the bonded magnet unit is concentrated on the side surface of the bonded magnet unit facing the erected surface of the yoke and curves from the bottom surface towards the voice coil.
Method for detecting a position error of an electronically commutated actuator drive between an assumed position and an actual position of the actuator drive, said method including the following steps: - Perform a position control procedure for the position of the actuator drive; - Provide data with regard to the assumed position of the actuator drive; - Generate an electric space vector value (Ud*) that generates a component of a stator magnetic field that extends parallel with a direction of an exciter magnetic field that prevails in the case of the actual position of the actuator drive; and - Detect whether a movement of the actuator drive has occurred as a result of generating the space vector value (Ud*) of the stator magnetic field. - Perform a position control procedure for the position of the actuator drive; - Provide data with regard to the assumed position of the actuator drive; - Generate an electric space vector value (Ud*) that generates a component of a stator magnetic field that extends parallel with a direction of an exciter magnetic field that prevails in the case of the actual position of the actuator drive; and - Detect whether a movement of the actuator drive has occurred as a result of generating the space vector value (Ud*) of the stator magnetic field.
A mobile cooling unit comprising: · a cart having a bottom and walls with openings defining a storage space, the cart being provided with wheel elements to enable it to be moved; · capsules containing a phase-change material and received in the storage space of the cart; · a closure element (9; 19) for covering the walls to close or to uncover the walls of the cart selectively; and · a fan unit (7; 17) attached to the cart in order to suck in air from the outside, and to cause the air to penetrate through an end into the storage space in order to cause it to flow around the capsules prior to being discharged to the outside through another end of the storage space. · a cart having a bottom and walls with openings defining a storage space, the cart being provided with wheel elements to enable it to be moved; · capsules containing a phase-change material and received in the storage space of the cart; · a closure element (9; 19) for covering the walls to close or to uncover the walls of the cart selectively; and · a fan unit (7; 17) attached to the cart in order to suck in air from the outside, and to cause the air to penetrate through an end into the storage space in order to cause it to flow around the capsules prior to being discharged to the outside through another end of the storage space.
A medical device tube, comprising: an outer cannula connector having a locking flange and opposing support ears; an outer cannula coupled to the outer cannula connector; an inner cannula connector having locking ears; and an inner cannula coupled to the inner cannula connector; wherein the inner cannula is adapted for insertion into the outer cannula connector and outer cannula such that the locking ears hold onto the locking flange of the outer cannula connector, wherein the opposing support ears substantially prevent rotation of the inner cannula connector in the outer cannula connector. an outer cannula connector having a locking flange and opposing support ears; an outer cannula coupled to the outer cannula connector; an inner cannula connector having locking ears; and an inner cannula coupled to the inner cannula connector; wherein the inner cannula is adapted for insertion into the outer cannula connector and outer cannula such that the locking ears hold onto the locking flange of the outer cannula connector, wherein the opposing support ears substantially prevent rotation of the inner cannula connector in the outer cannula connector.
A recombinant Herpes Simplex Virus-1 (HSV-1) for use in treating a cancer in a subject with cancer, wherein the cancer comprises a solid tumor, the use comprising administering to the subject a therapeutically effective amount of the recombinant Herpes Simplex Virus-1 (HSV-1) that expresses only a C-terminal portion of γ 1 34.5 protein with no wild-type or intact γ 1 34.5 protein expression thereby treating the subject's cancer, wherein the C-terminal portion of the γ 1 34.5 protein consists of SEQ ID NO:2.
A method for preparing a QD composite material, comprising: synthesizing a first compound at a predetermined position using cation precursors including a zinc precursor and a cadmium precursor, and anion precursors including a sulfur precursor and a selenium precursor to form Cd y Zn 1-y Se b S 1-b, where 0 < y ≤ 1, 0 < b ≤ 1; synthesizing a second compound on a surface of the first compound using cation precursors including a zinc precursor and a cadmium precursor and anion precursors including a sulfur precursor and a selenium precursor to form Cd z Zn 1-z Se c S 1-c, where 0 < z ≤ 1, 0 < c ≤ 1 and z is not equal to y, wherein the second compound and the first compound have different alloy compositions; and forming the QD composite material through a cation exchange reaction between the first compound and the second compound by a heating temperature in a range from 100 °C to 400 °C, preferably 310 °C, a heating time in a range from 2 seconds to 24 hours, a reaction time of preferably 5 minutes, and an injection rate preferably of 3 mL/h and 6 mL/h of the sulfur precursor and the selenium precursor, wherein a light-emission peak wavelength of the QD composite material experiences one or more of a blue-shift, a red-shift, and no-shift in accordance to an energy level width shift between a valence band and a conduction band of the QD composite material, wherein a gradient alloy composition distribution Cd x Zn 1-x Se a S 1-a, where 0 < x ≤ 1, 0 < a ≤ 1, is formed at the interface between Cd y Zn 1-y Se b S 1-b and Cd z Zn 1-z Se c S 1-c. synthesizing a first compound at a predetermined position using cation precursors including a zinc precursor and a cadmium precursor, and anion precursors including a sulfur precursor and a selenium precursor to form Cd y Zn 1-y Se b S 1-b, where 0 < y ≤ 1, 0 < b ≤ 1; synthesizing a second compound on a surface of the first compound using cation precursors including a zinc precursor and a cadmium precursor and anion precursors including a sulfur precursor and a selenium precursor to form Cd z Zn 1-z Se c S 1-c, where 0 < z ≤ 1, 0 < c ≤ 1 and z is not equal to y, wherein the second compound and the first compound have different alloy compositions; and forming the QD composite material through a cation exchange reaction between the first compound and the second compound by a heating temperature in a range from 100 °C to 400 °C, preferably 310 °C, a heating time in a range from 2 seconds to 24 hours, a reaction time of preferably 5 minutes, and an injection rate preferably of 3 mL/h and 6 mL/h of the sulfur precursor and the selenium precursor, wherein a light-emission peak wavelength of the QD composite material experiences one or more of a blue-shift, a red-shift, and no-shift in accordance to an energy level width shift between a valence band and a conduction band of the QD composite material, wherein a gradient alloy composition distribution Cd x Zn 1-x Se a S 1-a, where 0 < x ≤ 1, 0 < a ≤ 1, is formed at the interface between Cd y Zn 1-y Se b S 1-b and Cd z Zn 1-z Se c S 1-c.
Cosmetic or dermatological preparation comprising (i) one or more extracts of Saxifraga oppositifolia and/or (ii) one or more extracts of Soldanella alpina.
A process for the preparation of the ketone compounds comprising the following steps: (i) reacting a compound of the formula with R'-Mg-Hal or Mg and R 1 C(=O)Cl in the presence of a Cu -catalyst in an amount of 0.005 to 0.065 mole equivalents per 1 mole of compound, to result in compounds II and (ii) reacting compound as defined in step (i) with a phenol derivative of formula in the presence of a base if R" is hydrogen; wherein the variables are defined as follows: X is F or Cl; R 1 is C 1 -C 6 -alkyl or C 3 -C 8 -cycloalkyl; and R 4 is F or Cl; R' is C 1 -C 4 -alkyl or C 3 -C 6 -cycloalkyl; Hal is halogen; and R" is hydrogen or an alkali metal kation. (i) reacting a compound of the formula with R'-Mg-Hal or Mg and R 1 C(=O)Cl in the presence of a Cu -catalyst in an amount of 0.005 to 0.065 mole equivalents per 1 mole of compound, to result in compounds II and (ii) reacting compound as defined in step (i) with a phenol derivative of formula in the presence of a base if R" is hydrogen; wherein the variables are defined as follows: X is F or Cl; R 1 is C 1 -C 6 -alkyl or C 3 -C 8 -cycloalkyl; and R 4 is F or Cl; R' is C 1 -C 4 -alkyl or C 3 -C 6 -cycloalkyl; Hal is halogen; and R" is hydrogen or an alkali metal kation. X is F or Cl; R 1 is C 1 -C 6 -alkyl or C 3 -C 8 -cycloalkyl; and R 4 is F or Cl; R' is C 1 -C 4 -alkyl or C 3 -C 6 -cycloalkyl; Hal is halogen; and R" is hydrogen or an alkali metal kation.
A resonant magnetic field sensor, comprising: a detector structure, comprising a mass block suspended in the detector structure; and two sets of displacement detection electrodes (12, 13) disposed on the detector structure, at both sides of the mass block along a first direction X in a plane where the mass block is arranged; a converter circuit, connected to the displacement detection electrodes (12, 13) of the detector structure, to convert detection results of the displacement detection electrodes (12, 13) into a voltage signal; and a vibration driving circuit, connected to output of the converter circuit, to provide output of the converter circuit to the mass block in the detector structure in a form of current, for driving the mass block to vibrate; wherein currents provided by the vibration driving circuit flow through the mass block in a second direction Y, which is perpendicular to the first direction X in the plane where the mass block is arranged; wherein the vibration driving circuit further comprises a comparator circuit, with one input connected to an output of the converter circuit and another input being a reference potential, for outputting a result of comparison between output signals of the converter circuit and the reference potential, as function as vibration driving signal of the mass block; characterized in that the mass block is suspended on the detector structure with springs (16, 17, 18, 19), wherein at the positions in the detector structure where the springs (16, 17, 18, 19) are suspended, two electrodes (14a, 14b) are provided and wherein currents flowing through the mass block in the second direction Y is supplied by the vibration driving circuit to the mass block via the electrodes (14a, 14b); wherein a plurality of finger-shaped projections (11 a, 11 b) is extended from the mass block at its two sides along the X direction; a plurality of finger-shaped projections (12a, 13a) is extended from the displacement detection electrodes (12, 13) respectively from a side corresponding to the mass block; and the finger-shaped projections (12a, 13a) of the displacement detection electrodes (12, 13) respectively stagger with their corresponding finger-shaped projections (11 a, 11 b) of the mass block along the Y direction. a detector structure, comprising a mass block suspended in the detector structure; and two sets of displacement detection electrodes (12, 13) disposed on the detector structure, at both sides of the mass block along a first direction X in a plane where the mass block is arranged; a converter circuit, connected to the displacement detection electrodes (12, 13) of the detector structure, to convert detection results of the displacement detection electrodes (12, 13) into a voltage signal; and a vibration driving circuit, connected to output of the converter circuit, to provide output of the converter circuit to the mass block in the detector structure in a form of current, for driving the mass block to vibrate;
A processor-implemented method of reducing image blurring and/or image artifact display resulting from viewer movements in a near-to-eye, NTE, display that is worn, at least partially, on a viewer's head, comprising the steps of: sensing movement of the viewer's head and the NTE display while displaying an image on the NTE display, the image comprising individual content frames; and varying a characteristic of the individual content frames of the displayed image based on the sensed movement rate; wherein the characteristic of the individual content frames that is varied comprises a two-dimensional, 2D, frequency content of the individual content frames wherein the step of varying the 2D frequency content comprises varying at least one cut-off frequency of a 2D low-pass filter applied to the frames such as to attenuate high-frequency components of the image frames when the sensed movement rate becomes more rapid. sensing movement of the viewer's head and the NTE display while displaying an image on the NTE display, the image comprising individual content frames; and varying a characteristic of the individual content frames of the displayed image based on the sensed movement rate; wherein the characteristic of the individual content frames that is varied comprises a two-dimensional, 2D, frequency content of the individual content frames wherein the step of varying the 2D frequency content comprises varying at least one cut-off frequency of a 2D low-pass filter applied to the frames such as to attenuate high-frequency components of the image frames when the sensed movement rate becomes more rapid.
Coating comprising at least one Al-Cr-Fe-O layer exhibiting hexagonal α-phase polycrystalline structure and comprising droplets, whereby an Fe concentration within the coating reflects approximately a target composition of 1 to 5 at% Fe in addition to AlCr characterized by - the Al-Cr-Fe-O layer comprising Al-rich droplets and Cr-rich droplets, wherein the Al-rich droplets comprise Al and the Cr-rich droplets comprise Cr, and wherein the Al-rich droplets exhibit a flat-shape, while the Cr-rich droplets exhibit a spherical shape, and - the hexagonal α-phase polycrystalline structure having at least one V-shaped hexagonal crystallite which is grown on a Cr-rich droplet exhibiting spherical shape. - the Al-Cr-Fe-O layer comprising Al-rich droplets and Cr-rich droplets, wherein the Al-rich droplets comprise Al and the Cr-rich droplets comprise Cr, and wherein the Al-rich droplets exhibit a flat-shape, while the Cr-rich droplets exhibit a spherical shape, and - the hexagonal α-phase polycrystalline structure having at least one V-shaped hexagonal crystallite which is grown on a Cr-rich droplet exhibiting spherical shape.
A catalyst formulation comprising: (a) a Zn catalyst comprising a Zn compound having alcoholate ligand(s) derived from one or more polyols, and (b) a catalyst additive comprising a metal compound (i) having alcoholate ligand(s) derived from one or more monohydric alcohols wherein the metal is selected from: group 2 metals, preferably Mg, Ca, Sr, and Ba, more preferably Mg, Li, and combinations of at least two metals selected from and. (a) a Zn catalyst comprising a Zn compound having alcoholate ligand(s) derived from one or more polyols, and (b) a catalyst additive comprising a metal compound (i) having alcoholate ligand(s) derived from one or more monohydric alcohols wherein the metal is selected from: group 2 metals, preferably Mg, Ca, Sr, and Ba, more preferably Mg, Li, and combinations of at least two metals selected from and. group 2 metals, preferably Mg, Ca, Sr, and Ba, more preferably Mg, Li, and combinations of at least two metals selected from and.
A method for displaying an image via a display device worn on a head of a user, the display device including a projector assembly for projecting images and one or more sensors (52, 56, 70), the method comprising: displaying the image at an initial registration position with respect to an eye of the user, by projecting the image onto a cornea of the eye; receiving composite motion data from the one or more sensors (52, 56, 70), the composite motion data comprising a head motion component and a relative motion component which represents relative motion between the head and the display device; filtering the composite motion data to remove the head motion component and yield the relative motion component; using the relative motion component, adjusting the initial registration position of the image to an adjusted registration position with respect to the eye of the user that compensates for the relative motion component; and displaying the image at the adjusted registration position by projecting the image onto the cornea of the eye; at a stabilization frequency, performing subsequent adjustments of image registration positions using the relative motion component and displaying the image at corresponding adjusted registration positions; and at a centering frequency that is slower than the stabilization frequency, progressively displaying the image at locations increasingly closer to a reference location on the cornea. displaying the image at an initial registration position with respect to an eye of the user, by projecting the image onto a cornea of the eye; receiving composite motion data from the one or more sensors (52, 56, 70), the composite motion data comprising a head motion component and a relative motion component which represents relative motion between the head and the display device; filtering the composite motion data to remove the head motion component and yield the relative motion component; using the relative motion component, adjusting the initial registration position of the image to an adjusted registration position with respect to the eye of the user that compensates for the relative motion component; and displaying the image at the adjusted registration position by projecting the image onto the cornea of the eye; at a stabilization frequency, performing subsequent adjustments of image registration positions using the relative motion component and displaying the image at corresponding adjusted registration positions; and at a centering frequency that is slower than the stabilization frequency, progressively displaying the image at locations increasingly closer to a reference location on the cornea.
A controller of an injection molding machine configured to control an operation of the injection molding machine, comprising: a display control unit (711, 715) configured to display a display screen on a display unit, a plurality of setting fields to which operation modules of the injection molding machine sequentially performed when an abnormality occurs in the injection molding machine are input to be exchangeable being arranged on the display screen; and an operation sequence creation unit (712, 716) configured to create an operation sequence of the injection molding machine to be performed when the abnormality occurs in the injection molding machine, according to data input to the plurality of setting fields. a display control unit (711, 715) configured to display a display screen on a display unit, a plurality of setting fields to which operation modules of the injection molding machine sequentially performed when an abnormality occurs in the injection molding machine are input to be exchangeable being arranged on the display screen; and an operation sequence creation unit (712, 716) configured to create an operation sequence of the injection molding machine to be performed when the abnormality occurs in the injection molding machine, according to data input to the plurality of setting fields.
A method for providing differentiated association in a WiFi network, the method comprising: determining, by a station, STA, an association priority class assigned by an access point, AP, for the STA; starting, by the STA, an association procedure with the AP of the WiFi network after a minimum wait time or during a time interval, wherein the minimum wait time or the time interval that is allocated for the STA according to the association priority class assigned for the STA, wherein the STA assigned a higher association priority class has a shorter minimum wait time or an earlier time interval, the method is characterised by detecting, at a media access control, MAC, layer of the STA, changes of traffic types in a buffer of the STA and initiating dynamic changes of the association priority class for the STA according to the changes of traffic types. determining, by a station, STA, an association priority class assigned by an access point, AP, for the STA; starting, by the STA, an association procedure with the AP of the WiFi network after a minimum wait time or during a time interval, wherein the minimum wait time or the time interval that is allocated for the STA according to the association priority class assigned for the STA, wherein the STA assigned a higher association priority class has a shorter minimum wait time or an earlier time interval, the method is characterised by detecting, at a media access control, MAC, layer of the STA, changes of traffic types in a buffer of the STA and initiating dynamic changes of the association priority class for the STA according to the changes of traffic types.
Method for producing a carbon fiber by recycling cotton, characterized in that it comprises steps of: a/ preparing a cellulose-based fiber, comprising: a1/ collecting a manufactured product made from cotton, a2/ mechanically treating said product in order to extract cotton therefrom in the form of short, discontinuous fibers, referred to as recycled cotton fibers, a3/ dissolving said recycled cotton fibers in a solution of phosphoric acid as a solvent solution, to form a so-called spinning solution, a4/ producing a continuous cellulose-based fiber by means of a solvent spinning process, a5/ optionally, stretching the continuous cellulose-based fiber obtained, b/ and carbonizing said continuous cellulose-based fiber to form a carbon fiber. a/ preparing a cellulose-based fiber, comprising: a1/ collecting a manufactured product made from cotton, a2/ mechanically treating said product in order to extract cotton therefrom in the form of short, discontinuous fibers, referred to as recycled cotton fibers, a3/ dissolving said recycled cotton fibers in a solution of phosphoric acid as a solvent solution, to form a so-called spinning solution, a4/ producing a continuous cellulose-based fiber by means of a solvent spinning process, a5/ optionally, stretching the continuous cellulose-based fiber obtained, a1/ collecting a manufactured product made from cotton, a2/ mechanically treating said product in order to extract cotton therefrom in the form of short, discontinuous fibers, referred to as recycled cotton fibers, a3/ dissolving said recycled cotton fibers in a solution of phosphoric acid as a solvent solution, to form a so-called spinning solution, a4/ producing a continuous cellulose-based fiber by means of a solvent spinning process, a5/ optionally, stretching the continuous cellulose-based fiber obtained, b/ and carbonizing said continuous cellulose-based fiber to form a carbon fiber.