mhurhangee/ep-ind-claims huggingface dataset:
A method of hard pan coating an edible core to provide a brown hue, comprising: (a) admixing a purple carrot anthocyanin-containing colorant with water to form an aqueous colorant solution; (b) adjusting the pH of the aqueous colorant solution to from 5 to 7, and, optionally, reducing the water content of the solution to form a pH-adjusted colorant; (c) admixing the pH-adjusted colorant with a sucrose-based syrup to form a colored sucrose-based syrup; (d) admixing a yellow colorant with one or more constituents and admixtures of steps (a), (b), and (c) such that the yellow colorant is incorporated into the colored sucrose-based syrup; and (e) applying the colored sucrose-based syrup to an edible core to provide at least one layer of a hard panned coating having a brown hue; wherein in the CIE 1976 CILECH color model system, the brown hue has a CIELCH color space h° coordinate of from 0° to 70°, and a CIELCH color space C* coordinate of from 0 to 20. (a) admixing a purple carrot anthocyanin-containing colorant with water to form an aqueous colorant solution; (b) adjusting the pH of the aqueous colorant solution to from 5 to 7, and, optionally, reducing the water content of the solution to form a pH-adjusted colorant; (c) admixing the pH-adjusted colorant with a sucrose-based syrup to form a colored sucrose-based syrup; (d) admixing a yellow colorant with one or more constituents and admixtures of steps (a), (b), and (c) such that the yellow colorant is incorporated into the colored sucrose-based syrup; and (e) applying the colored sucrose-based syrup to an edible core to provide at least one layer of a hard panned coating having a brown hue; wherein in the CIE 1976 CILECH color model system, the brown hue has a CIELCH color space h° coordinate of from 0° to 70°, and a CIELCH color space C* coordinate of from 0 to 20.
A headphone type acoustic apparatus, comprising: a pair of housing blocks (40R, 40L) each including a headphone unit, wherein the headphone unit comprises a diaphragm for converting electrical signals in vibration of air; a headband section (10, 20R, 20L) that supports the housing blocks (40R, 40L) at both ends and includes a pair of speaker units; one or more pressure sensors and one or more motion sensors that obtain information for estimating a mounted state of the headphone type acoustic apparatus; and a control unit that estimates the mounted state based on outputs of the one or more sensors (125, 126, 127) and controls, based on the estimated mounted state, outputs of the pair of headphone units and the pair of speaker units. a pair of housing blocks (40R, 40L) each including a headphone unit, wherein the headphone unit comprises a diaphragm for converting electrical signals in vibration of air; a headband section (10, 20R, 20L) that supports the housing blocks (40R, 40L) at both ends and includes a pair of speaker units; one or more pressure sensors and one or more motion sensors that obtain information for estimating a mounted state of the headphone type acoustic apparatus; and a control unit that estimates the mounted state based on outputs of the one or more sensors (125, 126, 127) and controls, based on the estimated mounted state, outputs of the pair of headphone units and the pair of speaker units.
A cochlear implant device for improving or augmenting the hearing capability of a user of the cochlear implant device, comprising: an electrode array comprising a plurality of electrodes (610, 611); an inductive antenna configured to receive energy to operate the cochlear implant and to receive signals for a stimulation of a cochlea via the electrode array, and wherein the received signals include audio; a stimulation unit configured to process the received signals received by the inductive antenna to be usable for the electrodes of the electrode array, and the electrode array is configured to apply the received signals processed by the stimulation unit to the cochlea for the stimulation thereof; and an energy harvesting apparatus connected to the electrode array, and wherein the electrode array with the energy harvesting apparatus is designed to be insertable into the scala tympani of the cochlea, and wherein the energy harvesting apparatus is configured to harvest energy based on movement of the cochlea liquid and configured to provide harvested energy to the stimulation unit or the electrode array, respectively. an inductive antenna configured to receive energy to operate the cochlear implant and to receive signals for a stimulation of a cochlea via the electrode array, and wherein the received signals include audio; a stimulation unit configured to process the received signals received by the inductive antenna to be usable for the electrodes of the electrode array, and the electrode array is configured to apply the received signals processed by the stimulation unit to the cochlea for the stimulation thereof; and an energy harvesting apparatus connected to the electrode array, and wherein the electrode array with the energy harvesting apparatus is designed to be insertable into the scala tympani of the cochlea, and wherein the energy harvesting apparatus is configured to harvest energy based on movement of the cochlea liquid and configured to provide harvested energy to the stimulation unit or the electrode array, respectively.
An oil concentrate for cosmetic compositions, comprising (a) at least one anionic surfactant which is liquid at room temperature and is selected from the group of the alk(en)yl polyglycol ether citrates, and (b)at least one nonionic surfactant, and (c)an oil component with a polar oil having a polarity of between 5 and 30 mN/m and optionally an apolar oil having a polarity of above 35 mN/m, the: (c1+c2) mixing ratio being in the range from 0.1 to 1 and the oil component (c) being present in amounts of 30 to 60 wt%, based on the oil concentrate, (d)and also, optionally, thickeners. (a) at least one anionic surfactant which is liquid at room temperature and is selected from the group of the alk(en)yl polyglycol ether citrates, and (b)at least one nonionic surfactant, and (c)an oil component with a polar oil having a polarity of between 5 and 30 mN/m and optionally an apolar oil having a polarity of above 35 mN/m, the: (c1+c2) mixing ratio being in the range from 0.1 to 1 and the oil component (c) being present in amounts of 30 to 60 wt%, based on the oil concentrate, (d)and also, optionally, thickeners.
A clamping device by means of which an electrically driven vehicle is supported on a floor, wall or ceiling, consisting of a holding arm attached to the floor, wall or ceiling in which case the holding arm is chiefly aligned in parallel to and at a distance from the floor, of a locking head attached at right angles to the longitudinal axis of the holding arm on its free end, of a coupling provided on the bicycle, the inner contour of the coupling being adapted to the outer contour of the locking head in such a way that the locking head can be attached to the coupling through an insertion, engagement or detent effect, and of an energy transfer device (21, 22, 23 and 31, 32, 33) provided in the locking head and in the coupling, the parts of which interact with one another in each case, characterised in that, the locking head has a cross section that is cupola or dome-shaped or rectangular and the inner contour of the coupling has a convex or rectangular cross section, that between the locking head and the inner contour of the coupling there is an air gap which is between 0.1 and 1 millimetre in extent, and that the energy transfer devices (21, 22, 23 or 31, 32, 33) in the locking head and in the coupling are configured as electrically operated magnetic coils (21, 31) by means of which electrical energy is transferred inductively.
An indoor unit of an air-conditioning apparatus connected to an outdoor unit with a pipe, the indoor unit comprising: a housing defining an outer shape of the indoor unit; and characterized by a pipe hole-opening groove section that is in a form of grid-like grooves on an inner surface of the housing, and, a groove-like outer frame, the pipe hole-opening groove section being formed in such a manner that the grid-like grooves can be cut within said groove-like outer frame. a housing defining an outer shape of the indoor unit; and characterized by a pipe hole-opening groove section that is in a form of grid-like grooves on an inner surface of the housing, and, a groove-like outer frame, the pipe hole-opening groove section being formed in such a manner that the grid-like grooves can be cut within said groove-like outer frame.
A front-end module for frequency division duplex user equipment, which module connects an antenna of the user equipment with an RF transmitter/receiver circuit of the user equipment and comprises a frequency duplexer connected between said antenna and both a receive path and a transmit path to and from said RF transmitter/receiver circuit, and a power amplifier section and a noise filter in the transmit path; characterized in that said frequency duplexer comprises a combination of a pass-band filter and a notch filter and is adapted to communicate a plurality of operating bands each comprising an uplink frequency sub-band and a downlink frequency sub-band wherein a) at least one of the uplink frequency sub-bands of said plurality of operating bands is not adjacent to the other uplink frequency sub-bands of said plurality of operating bands in which case said pass band filter is connected between the antenna and the receive path and said notch filter is connected between the antenna and the transmit path; or b) at least one of the downlink frequency sub-bands of said plurality of operating bands is not adjacent to the other downlink frequency sub-bands of said plurality of operating bands, in which case said pass band filter is connected between the antenna and the transmit path and said notch filter is connected between the antenna and the receive path. a) at least one of the uplink frequency sub-bands of said plurality of operating bands is not adjacent to the other uplink frequency sub-bands of said plurality of operating bands in which case said pass band filter is connected between the antenna and the receive path and said notch filter is connected between the antenna and the transmit path; or b) at least one of the downlink frequency sub-bands of said plurality of operating bands is not adjacent to the other downlink frequency sub-bands of said plurality of operating bands, in which case said pass band filter is connected between the antenna and the transmit path and said notch filter is connected between the antenna and the receive path.
Method for detection of malware, such as a defective code or a computer virus, contained in a computer file, wherein a computer file under test is processed by the following steps: - the computer file under test is converted into image data that comprise a multitude of different images, - wherein each of said images is calculated from data contained in the computer file under test and - wherein the multitude of different images comprise different image representations of parts of the computer file under test in the form of varying image types (A, B, C, D, E), - with each image type (A, B, C, D, E) providing a specific part of information which is contained in the computer file under test and which is relevant for the detection of malware; - the image data are classified using a method of artificial intelligence, in particular a method of machine learning, to detect the malware, - wherein each of the multitude of different images is classified independently from the other images and - wherein the malignity of the computer file under test is evaluated based on an overall classification result of the multitude of different images. - the computer file under test is converted into image data that comprise a multitude of different images, - wherein each of said images is calculated from data contained in the computer file under test and - wherein the multitude of different images comprise different image representations of parts of the computer file under test in the form of varying image types (A, B, C, D, E), - with each image type (A, B, C, D, E) providing a specific part of information which is contained in the computer file under test and which is relevant for the detection of malware; - the image data are classified using a method of artificial intelligence, in particular a method of machine learning, to detect the malware, - wherein each of the multitude of different images is classified independently from the other images and - wherein the malignity of the computer file under test is evaluated based on an overall classification result of the multitude of different images.
A radio frequency integrated circuit filter comprising: a substrate; an insulating layer arranged on the substrate; a plurality of filter resonators (2310A, 2312A, 2314A) being electrically coupled to form a filter structure; a plurality of tuning resonators (2310B, 2312B, 2314B); wherein the filter resonators (2310A, 2312A, 2314A) and the tuning resonators (2310B, 2312B, 2314B) are bulk acoustic wave, BAW, resonators; a plurality of tuning circuits coupled to the plurality of tuning resonators (2310B, 2312B, 2314B), wherein each tuning circuit comprises a variable capacitor (2310C, 2312C, 2314C) and an inductor (2310D, 2312D, 2314D); wherein the plurality of filter resonators (2310A, 2312A, 2314A) is arranged in the insulating layer and includes a patterned top electrode layer, a patterned piezoelectric layer, and a patterned bottom electrode layer, wherein at least two (2310A, 2312A) of the plurality of filter resonators (2310A, 2312A, 2314A) are coupled together with the patterned top electrode layer; wherein the plurality of filter resonators (2310A, 2312A, 2314A) is electrically decoupled from the plurality of filter resonators (2310A, 2312A, 2314A), a common acoustic coupling layer arranged on the plurality of filter resonators (2310A, 2312A, 2314A); and wherein the tuning resonators (2310B, 2312B, 2314B) are arranged on the common acoustic coupling layer and correspondingly located above each of the plurality of filter resonators (2310A, 2312A, 2314A) to acoustically couple each tuning resonator (2310B, 2312B, 2314B) with the respective filter resonator (2310A, 2312A, 2314A). a substrate; an insulating layer arranged on the substrate; a plurality of filter resonators (2310A, 2312A, 2314A) being electrically coupled to form a filter structure; a plurality of tuning resonators (2310B, 2312B, 2314B); wherein the filter resonators (2310A, 2312A, 2314A) and the tuning resonators (2310B, 2312B, 2314B) are bulk acoustic wave, BAW, resonators; a plurality of tuning circuits coupled to the plurality of tuning resonators (2310B, 2312B, 2314B), wherein each tuning circuit comprises a variable capacitor (2310C, 2312C, 2314C) and an inductor (2310D, 2312D, 2314D); wherein the plurality of filter resonators (2310A, 2312A, 2314A) is arranged in the insulating layer and includes a patterned top electrode layer, a patterned piezoelectric layer, and a patterned bottom electrode layer, wherein at least two (2310A, 2312A) of the plurality of filter resonators (2310A, 2312A, 2314A) are coupled together with the patterned top electrode layer; wherein the plurality of filter resonators (2310A, 2312A, 2314A) is electrically decoupled from the plurality of filter resonators (2310A, 2312A, 2314A), a common acoustic coupling layer arranged on the plurality of filter resonators (2310A, 2312A, 2314A); and wherein the tuning resonators (2310B, 2312B, 2314B) are arranged on the common acoustic coupling layer and correspondingly located above each of the plurality of filter resonators (2310A, 2312A, 2314A) to acoustically couple each tuning resonator (2310B, 2312B, 2314B) with the respective filter resonator (2310A, 2312A, 2314A).
An acoustic touch apparatus, comprising: a substrate (5, 105) having surfaces configured to propagate surface acoustic waves; at least one acoustic wave transducer (35, 135) on a first surface (15, 115); and at least one reflective array (40, 140) on the first surface (15, 115), said transducer (35, 135) configured to transmit or receive surface acoustic waves to or from the reflective array (40, 140) and said reflective array (40, 140) configured to acoustically couple surface acoustic waves to propagate between surfaces of the substrate (5, 105), and characterized in that said substrate (5, 105) having a first acoustic element disposed on the first surface configured to intercept propagating surface acoustic waves on the first surface and cause variations in the phase velocity of the propagating surface acoustic waves and a second acoustic element disposed on the first surface to equalize the variations by counteracting changes in the phase velocities of the propagating surface acoustic waves passing over the disposed first acoustic element. a substrate (5, 105) having surfaces configured to propagate surface acoustic waves; at least one acoustic wave transducer (35, 135) on a first surface (15, 115); and at least one reflective array (40, 140) on the first surface (15, 115), said transducer (35, 135) configured to transmit or receive surface acoustic waves to or from the reflective array (40, 140) and said reflective array (40, 140) configured to acoustically couple surface acoustic waves to propagate between surfaces of the substrate (5, 105), and characterized in that said substrate (5, 105) having a first acoustic element disposed on the first surface configured to intercept propagating surface acoustic waves on the first surface and cause variations in the phase velocity of the propagating surface acoustic waves and a second acoustic element disposed on the first surface to equalize the variations by counteracting changes in the phase velocities of the propagating surface acoustic waves passing over the disposed first acoustic element.
A method for locating a glass support, wherein said glass support is moving, comprising the steps of: - providing a conveyor surface of the conveyor roller type arranged so as to generate said movement of said glass support, wherein said movement occurs at a selectable speed (V_sel) and in a feed direction (Dir); - providing illumination means for the glass support configured to illuminate said glass support in movement on said conveyor rollers; - acquiring a predetermined plurality of lines of said glass support in movement, as a function of a line frequency which is defined in turn as a function of an acquisition rate (V_det); - generating a primary image (I_PR) as a function of said acquired predetermined plurality of lines; - detecting from said primary image (I_PR) a plurality of representative points (Pi) of said glass support, wherein the coordinates of said plurality of points (Pi) are expressed in relation to a first predefined reference (Ref); - calculating location coordinates (Xi",Yi",αi") of said glass support relative to said first predefined reference (Ref) as a function of said plurality of representative points (Pi); - loading a graphic file (F_dsc) describing a theoretical contour (Cont_TEO) of said glass support in movement on said conveyor surface; wherein said plurality of points (Pi) is representative of an actual contour (Cont_EFF) of said glass support; characterised in that said step of calculating said location coordinates (Xi,Yi",αi") of said glass support relative to said first predefined reference (Ref) as a function of said plurality of representative points (Pi) is carried out by means of a fitting algorithm between said actual contour (Cont_EFF) of said glass support, determined by said plurality of points (Pi), and said theoretical contour (Cont_TEO) of said glass support. - providing a conveyor surface of the conveyor roller type arranged so as to generate said movement of said glass support, wherein said movement occurs at a selectable speed (V_sel) and in a feed direction (Dir); - providing illumination means for the glass support configured to illuminate said glass support in movement on said conveyor rollers; - acquiring a predetermined plurality of lines of said glass support in movement, as a function of a line frequency which is defined in turn as a function of an acquisition rate (V_det); - generating a primary image (I_PR) as a function of said acquired predetermined plurality of lines; - detecting from said primary image (I_PR) a plurality of representative points (Pi) of said glass support, wherein the coordinates of said plurality of points (Pi) are expressed in relation to a first predefined reference (Ref); - calculating location coordinates (Xi",Yi",αi") of said glass support relative to said first predefined reference (Ref) as a function of said plurality of representative points (Pi); - loading a graphic file (F_dsc) describing a theoretical contour (Cont_TEO) of said glass support in movement on said conveyor surface;
A touch display device, comprising: a display panel including a display region in which a plurality of driving pixels is disposed and a non-display region in which a plurality of dummy pixels is disposed; a first touch sensor unit including a plurality of touch sensors which are disposed in one line in an area of the display region adjacent to the non-display region; a touch driving circuit for driving the plurality of touch sensors; a first connecting unit which electrically connects the touch driving circuit and the plurality of dummy pixels; and a second connecting unit which electrically connects the plurality of dummy pixels and the plurality of touch sensors, characterised in that among the plurality of dummy pixels, the dummy pixels, which are electrically connected to the same touch sensor of the first touch sensing unit, are electrically connected to each other. a display panel including a display region in which a plurality of driving pixels is disposed and a non-display region in which a plurality of dummy pixels is disposed; a first touch sensor unit including a plurality of touch sensors which are disposed in one line in an area of the display region adjacent to the non-display region; a touch driving circuit for driving the plurality of touch sensors; a first connecting unit which electrically connects the touch driving circuit and the plurality of dummy pixels; and a second connecting unit which electrically connects the plurality of dummy pixels and the plurality of touch sensors, characterised in that among the plurality of dummy pixels, the dummy pixels, which are electrically connected to the same touch sensor of the first touch sensing unit, are electrically connected to each other.