mhurhangee/patent-ind-claim-en huggingface dataset:
A capsule , for use in a machine that injects fluid into capsules for preparing consumable products from capsules, said capsule comprising: a body defining an interior space with an opening at one location and an aperture at another location, wherein said body includes a side wall that tapers inwardly from said opening to said aperture; ingredients disposed in said interior space for preparing a desired consumable product; a cover disposed over said opening, said cover being adapted to be pierced by a nozzle disposed on the machine to inject fluid into said capsule ; wherein said ingredients include insoluble consumable ingredients , comprising at least one of noodles and dried vegetables; said capsule being characterized in that : said capsule further comprises a soluble closure disposed in said body for closing said aperture, said soluble closure being provided to close said aperture to prevent said ingredients from passing through said aperture until fluid is injected into said capsule, and being adapted so that, upon dissolution of said closure , said aperture is exposed and said consumable product containing said insoluble consumable ingredients is allowed to pass through said aperture into a receptacle . a body defining an interior space with an opening at one location and an aperture at another location, wherein said body includes a side wall that tapers inwardly from said opening to said aperture; ingredients disposed in said interior space for preparing a desired consumable product; a cover disposed over said opening, said cover being adapted to be pierced by a nozzle disposed on the machine to inject fluid into said capsule ; wherein said ingredients include insoluble consumable ingredients , comprising at least one of noodles and dried vegetables; said capsule being characterized in that : said capsule further comprises a soluble closure disposed in said body for closing said aperture, said soluble closure being provided to close said aperture to prevent said ingredients from passing through said aperture until fluid is injected into said capsule, and being adapted so that, upon dissolution of said closure , said aperture is exposed and said consumable product containing said insoluble consumable ingredients is allowed to pass through said aperture into a receptacle .
A lemon juice-containing beverage, comprising: (a) at least one aroma component selected from the group consisting of linalool, nonanal, and decanal, and (b) 1 ppb or more of at least one phenylpropene selected from the group consisting of safrole, methyleugenol, and myristicin; the beverage having a fruit juice content of not less than 1% and not more than 30%. (a) at least one aroma component selected from the group consisting of linalool, nonanal, and decanal, and (b) 1 ppb or more of at least one phenylpropene selected from the group consisting of safrole, methyleugenol, and myristicin;
A nailing machine for assembling wood pallets or the like comprising at least one nailing station and advancement and guiding means which form a substantially horizontal resting surface at said nailing station , said nailing station being designed for the assembly of at least two superimposed wood pieces to be assembled by nailing to provide a pallet, said nailing station comprising at least one nailing head which is associated with at least one nailing stem , which can move along a substantially vertical direction with respect to said resting surface between an inactive position, in which the lower end of said at least one nailing stem is spaced from the upper surface of said at least two superimposed wood pieces , and an active position, in which the lower end of said nailing stem is moved closer to said upper surface of said at least two superimposed wood pieces , said at least one nailing head being feedable with the nails to be used for nailing, and further comprising means for varying the elevation of said upper surface of said two superimposed wood pieces at said nailing station , said means for varying the elevation of the upper surface being actuatable on command in order to move said upper surface to a predetermined elevation, characterized in that said elevation variation means comprise at least one upper abutment body for a portion of the upper surface of said two superimposed wood pieces , and at least one device for moving said resting surface , which is designed to move on command said resting surface between a lowered position, in which the upper surface of said two superimposed wood pieces is spaced and located below said upper abutment body , and a raised position, in which said upper surface rests against said upper abutment body .
A personal care bottle comprising: a distal end portion and a proximal end with a shoulder ; a collapsible bag positioned within the personal care bottle, the collapsible bag configured to contain a liquid; a cap defining an opening having a frangible seal , the cap mounted to the proximal end, wherein the personal care bottle has an outer surface defining a groove extending from the shoulder toward the distal end portion. a distal end portion and a proximal end with a shoulder ; a collapsible bag positioned within the personal care bottle, the collapsible bag configured to contain a liquid; a cap defining an opening having a frangible seal , the cap mounted to the proximal end, wherein the personal care bottle has an outer surface defining a groove extending from the shoulder toward the distal end portion.
A wheel chock system , comprising: - a pair of wheel chocks for preventing motion of a wheel of a vehicle , - an actuator configured to move said pair of wheel chocks from an inactivated position in which the wheel chocks do not prevent wheel motion, to an activated position in which one of said pair of wheel chocks prevents forward motion of the wheel and the other one of said pair of wheel chocks prevents rearward motion of the same wheel, - a control unit for controlling the actuator, wherein the control unit is configured to: - receive an operator-initiated activation request when said pair of wheel chocks is in the inactivated position, - determine that a plurality of predefined conditions are met, and - upon determination that the plurality of predefined conditions are met and the operator-initiated activation request has been received, cause the actuator to move the wheel chocks from the inactivated position to the activated position. - a pair of wheel chocks for preventing motion of a wheel of a vehicle , - an actuator configured to move said pair of wheel chocks from an inactivated position in which the wheel chocks do not prevent wheel motion, to an activated position in which one of said pair of wheel chocks prevents forward motion of the wheel and the other one of said pair of wheel chocks prevents rearward motion of the same wheel, - a control unit for controlling the actuator, wherein the control unit is configured to: - receive an operator-initiated activation request when said pair of wheel chocks is in the inactivated position, - determine that a plurality of predefined conditions are met, and - upon determination that the plurality of predefined conditions are met and the operator-initiated activation request has been received, cause the actuator to move the wheel chocks from the inactivated position to the activated position. - receive an operator-initiated activation request when said pair of wheel chocks is in the inactivated position, - determine that a plurality of predefined conditions are met, and - upon determination that the plurality of predefined conditions are met and the operator-initiated activation request has been received, cause the actuator to move the wheel chocks from the inactivated position to the activated position.
An apparatus for facilitating wireless communications of a device, the apparatus comprising: a memory element storing information; and a processing element configured to use at least a portion of the information to cause a wireless communication device to: conduct first wireless communications in a first frequency band according to a first radio access technology, RAT, wherein the first wireless communications comprise Wi-Fi communications; receive information from one or more other wireless communication devices, wherein the information is associated with wireless communications conducted according to a second RAT by the other wireless communication devices; determine, based at least on the information, that there is a presence of second wireless communications conducted in the first frequency band according to the second RAT while the wireless communication device is conducting the first wireless communications, wherein the second wireless communications comprise cellular radio communications; and adjust the first wireless communications at least in response to and based on the detected second wireless communications. a memory element storing information; and a processing element configured to use at least a portion of the information to cause a wireless communication device to: conduct first wireless communications in a first frequency band according to a first radio access technology, RAT, wherein the first wireless communications comprise Wi-Fi communications; receive information from one or more other wireless communication devices, wherein the information is associated with wireless communications conducted according to a second RAT by the other wireless communication devices; determine, based at least on the information, that there is a presence of second wireless communications conducted in the first frequency band according to the second RAT while the wireless communication device is conducting the first wireless communications, wherein the second wireless communications comprise cellular radio communications; and conduct first wireless communications in a first frequency band according to a first radio access technology, RAT, wherein the first wireless communications comprise Wi-Fi communications; receive information from one or more other wireless communication devices, wherein the information is associated with wireless communications conducted according to a second RAT by the other wireless communication devices; determine, based at least on the information, that there is a presence of second wireless communications conducted in the first frequency band according to the second RAT while the wireless communication device is conducting the first wireless communications, wherein the second wireless communications comprise cellular radio communications; and adjust the first wireless communications at least in response to and based on the detected second wireless communications.
A blocking method of short wavelengths in LED-type light sources comprising the steps of: selecting a mean optical density of a pigment between a maximum percent of absorption and a minimum percent of absorption in the range of short wavelengths between 380 nm and 500 nm; and pigmenting a substrate over its entire surface in such a way that the mean absorption is between said maximum and minimum percent of absorption between 1 and 99% of selective absorption in the range of short wavelengths between 380 nm and 500 nm; characterised in that the mean optical density is based on the sum of a predetermined maximum percent of absorption and a predetermined minimum percent of absorption of at least two of the following factors: the age of a user of LED-type light source, the size of the LED-type light source, the total exposure time of a user to the LED-type light source, the ambient lighting of the place where the user interacts with the LED-type light source, the type of LED-type light source, or a retinal or corneal disease state of the user. selecting a mean optical density of a pigment between a maximum percent of absorption and a minimum percent of absorption in the range of short wavelengths between 380 nm and 500 nm; and pigmenting a substrate over its entire surface in such a way that the mean absorption is between said maximum and minimum percent of absorption between 1 and 99% of selective absorption in the range of short wavelengths between 380 nm and 500 nm; characterised in that the mean optical density is based on the sum of a predetermined maximum percent of absorption and a predetermined minimum percent of absorption of at least two of the following factors: the age of a user of LED-type light source, the size of the LED-type light source, the total exposure time of a user to the LED-type light source, the ambient lighting of the place where the user interacts with the LED-type light source, the type of LED-type light source, or a retinal or corneal disease state of the user.
Optically pumped vector magnetometer comprising: - a cell that will be filled by an atomic gas subjected to an ambient magnetic field (Bo), - an optical pumping source arranged to emit a pump beam (F) with a pumping wavelength towards the cell , - a parametric resonance detection device arranged to receive a probe beam (L) that has passed through the cell, the probe beam being the pump beam or a beam distinct from the pump beam, characterised in that it also comprises a polarisation device configured so as to confer a linear polarisation and a circular polarisation onto the pump beam emitted towards the cell and thus to place atoms of the atomic gas in an aligned and oriented state, and in that the detection device comprises an optical set up arranged to separate optical signals carrying information about an alignment state from information about an orientation state of the atoms of the atomic gas respectively , in the probe beam that has passed through the cell,said information being used to measure the ambient magnetic field (B 0 ). - a cell that will be filled by an atomic gas subjected to an ambient magnetic field (Bo), - an optical pumping source arranged to emit a pump beam (F) with a pumping wavelength towards the cell , - a parametric resonance detection device arranged to receive a probe beam (L) that has passed through the cell, the probe beam being the pump beam or a beam distinct from the pump beam,
A system for generating an output signal comprising a high frequency component from an input audio signal comprising a low frequency component using a transposition order T, comprising: an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit , configured to alter the phase of the complex coefficients by using the transposition order T ; a synthesis transformation unit of order M and having a frequency resolution Q Δ f , configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T ; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the AT time domain samples, thereby generating a frame of the output signal; wherein L A = L S = L, wherein the transformation order M is M = F · L, wherein F ≥ Q + 1 2 , and wherein, when the transposition order T is greater than the frequency resolution factor Q, F < T + 1 2 . an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit , configured to alter the phase of the complex coefficients by using the transposition order T ; a synthesis transformation unit of order M and having a frequency resolution Q Δ f , configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T ; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the AT time domain samples, thereby generating a frame of the output signal; wherein L A = L S = L, wherein the transformation order M is M = F · L, wherein F ≥ Q + 1 2 , and wherein, when the transposition order T is greater than the frequency resolution factor Q, F < T + 1 2 .
An energy supply system for a mobile resistance welding machine for flash-butt welding of track rails, comprising a combustion engine coupled to a generator as well as a charging device for charging an energy store , wherein the energy store is a buffer element of an intermediate circuit to which a welding inverter is connected, characterized in that the energy supply system comprises an island grid with further users to which the generator is connected and which is coupled to the intermediate circuit by means of a controlled power converter .
A control apparatus for a vehicle, the vehicle comprising an engine , an automatic transmission comprising a torque converter , and a tachometer that displays an actual number of rotations (Ne) of the engine , the control apparatus comprising: a determination unit that determines whether or not a start condition is established,; and a display control unit that causes a virtual number of rotations (Na) to be displayed on the tachometer instead of the actual number of rotations (Ne) when it is determined by the determination unit that the start condition is established, characterized in that : the start condition includes the torque converter is in a non-lock-up state and the vehicle is starting, and in that the display control unit calculates an acting number of rotations (Naa) by referring to the actual number of rotations (Ne) and a number of rotations (Nc) on a driving wheel side relative to the torque converter in the automatic transmission , and causes the acting number of rotations (Naa) to be displayed on the tachometer as the virtual number of rotations (Na). a determination unit that determines whether or not a start condition is established,; and a display control unit that causes a virtual number of rotations (Na) to be displayed on the tachometer instead of the actual number of rotations (Ne) when it is determined by the determination unit that the start condition is established, the start condition includes the torque converter is in a non-lock-up state and the vehicle is starting, and in that the display control unit calculates an acting number of rotations (Naa) by referring to the actual number of rotations (Ne) and a number of rotations (Nc) on a driving wheel side relative to the torque converter in the automatic transmission , and causes the acting number of rotations (Naa) to be displayed on the tachometer as the virtual number of rotations (Na).
An inspection device for a stereolithography device, comprising: a transmitter unit arranged on a first side of the 3D printed object to be manufactured and configured to emit light onto at least one area of the 3D printed object on the mounting plate of the stereolithography device, a receiver unit arranged on a second side of the 3D printed object in the beam direction behind the 3D printed object and the mounting plate and configured to detect a part of the light emitted by the transmitter unit , and a processing unit connected to the receiver unit , characterized in that the processing unit is configured to analyze the received light , wherein the light is emitted by the transmitter unit as two-dimensional light grid, and wherein the processing unit is configured to compare the part of the light of the emitted light grid received by the receiver unit with a target light grid, which is based on data representing the 3D printed object . a transmitter unit arranged on a first side of the 3D printed object to be manufactured and configured to emit light onto at least one area of the 3D printed object on the mounting plate of the stereolithography device, a receiver unit arranged on a second side of the 3D printed object in the beam direction behind the 3D printed object and the mounting plate and configured to detect a part of the light emitted by the transmitter unit , and a processing unit connected to the receiver unit , characterized in that the processing unit is configured to analyze the received light , wherein the light is emitted by the transmitter unit as two-dimensional light grid, and wherein the processing unit is configured to compare the part of the light of the emitted light grid received by the receiver unit with a target light grid, which is based on data representing the 3D printed object .
A method of forming a photonic integrated circuit comprising an optical modulator and a gain element structure , the method comprising the steps of: depositing by epitaxy a first doped layer onto a wafer; depositing by epitaxy an active layer capable of optical gain onto the first doped layer ; depositing by epitaxy a second doped layer onto the active layer ; pattern etching at least the second doped layer and the active layer to form a first ridge; and depositing by epitaxy a current blocking layer laterally adjacent to the first ridge and at least partially filling the volume of active layer that was removed by the pattern etching; thereby providing a first waveguide for the optical modulator having a first overall length and a first overall width, formed by a combination of the first ridge and an adjacent current blocking layer, that is constant or tapering; and providing a second waveguide for the gain element structure having a second overall length and a second overall width that is constant or tapering contiguous with the first waveguide, formed by further selectively etching the current blocking layer; wherein the first overall width is larger than the second overall width, and wherein the first waveguide is weakly guided and the second waveguide is strongly guided, to decouple current confinement from optical confinement for monolithic integration of the optical modulator and the gain element , and wherein the current blocking layer forms a portion of the optical modulator . depositing by epitaxy a first doped layer onto a wafer; depositing by epitaxy an active layer capable of optical gain onto the first doped layer ; depositing by epitaxy a second doped layer onto the active layer ; pattern etching at least the second doped layer and the active layer to form a first ridge; and depositing by epitaxy a current blocking layer laterally adjacent to the first ridge and at least partially filling the volume of active layer that was removed by the pattern etching; thereby providing a first waveguide for the optical modulator having a first overall length and a first overall width, formed by a combination of the first ridge and an adjacent current blocking layer, that is constant or tapering; and providing a second waveguide for the gain element structure having a second overall length and a second overall width that is constant or tapering contiguous with the first waveguide, formed by further selectively etching the current blocking layer; wherein the first overall width is larger than the second overall width, and wherein the first waveguide is weakly guided and the second waveguide is strongly guided, to decouple current confinement from optical confinement for monolithic integration of the optical modulator and the gain element , and wherein the current blocking layer forms a portion of the optical modulator .