mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a memory storing a learned artificial intelligence model; and a processor configured to input an input image to the artificial intelligence model and to output an enlarged image with increased resolution, wherein the learned artificial intelligence model includes an upscaling module configured to calculate a pixel value of an interpolated pixel near an original pixel corresponding to a pixel of the input image in the enlarged image based on a Gaussian function in a form which is bilaterally symmetrical and nonlinearly decreases with respect to the original pixel, wherein the upscaling module calculates the pixel value of the interpolated pixel near a plurality of original pixels based on a ratio at which the plurality of original pixel values are reflected in the pixel value of the interpolated pixel, and the ratio is identified according to distances between the plurality of original pixels and the interpolated pixel, on a plurality of Gaussian functions based on the plurality of original pixels, wherein, a variance of the Gaussian function is calculated based on a linear function for bilinear interpolation of an upscaling factor, wherein the upscaling factor corresponds to a magnification of the enlarged image compared to the input image. a memory storing a learned artificial intelligence model; and a processor configured to input an input image to the artificial intelligence model and to output an enlarged image with increased resolution, wherein the learned artificial intelligence model includes an upscaling module configured to calculate a pixel value of an interpolated pixel near an original pixel corresponding to a pixel of the input image in the enlarged image based on a Gaussian function in a form which is bilaterally symmetrical and nonlinearly decreases with respect to the original pixel, wherein the upscaling module calculates the pixel value of the interpolated pixel near a plurality of original pixels based on a ratio at which the plurality of original pixel values are reflected in the pixel value of the interpolated pixel, and the ratio is identified according to distances between the plurality of original pixels and the interpolated pixel, on a plurality of Gaussian functions based on the plurality of original pixels, wherein, a variance of the Gaussian function is calculated based on a linear function for bilinear interpolation of an upscaling factor, wherein the upscaling factor corresponds to a magnification of the enlarged image compared to the input image.
Zip-line system comprising a trolley, a rope and a deceleration system (10, 11), the trolley being configured to travel along a rope, wherein the deceleration system (10, 11) comprises at least one magnet arranged adjacent to the rope, the magnet being arranged such that its axis connecting magnetic north and magnetic south is substantially perpendicular to the direction of the rope and wherein the trolley comprises an electrically conducting member for interacting with the magnetic field in response to travelling along the rope, characterized in that the electrically conducting member is a frame of the trolley.
A liquid composition for use in preventing and/or treating memory decline and/or cognitive dysfunction, Alzheimer's, Parkinson's and/or dementia, said composition comprising: (i) at least 50 mg uridine nucleoside and/or uridine nucleotide and/or cytidine nucleoside and/or cytidine nucleotide per 100 ml; (ii) between 0.2 and 10 grams protein per 100 ml; and (iii) between 0.05 and 3 wt.% of thickener, based on total weight of the composition, wherein said thickener is selected from the group consisting of cellulose, xanthan gum, gellan gum, alginate, guar gum, locust bean gum, gum karaya, gum tragacanth, carrageenan, and mixtures thereof. (i) at least 50 mg uridine nucleoside and/or uridine nucleotide and/or cytidine nucleoside and/or cytidine nucleotide per 100 ml; (ii) between 0.2 and 10 grams protein per 100 ml; and (iii) between 0.05 and 3 wt.% of thickener, based on total weight of the composition,
A synergistic antimicrobial composition comprising (i) A polyvalent metal salt of pyrithione; and (ii) A benzophenone compound selected from benzophenone-1 or benzophenone-2. (i) A polyvalent metal salt of pyrithione; and (ii) A benzophenone compound selected from benzophenone-1 or benzophenone-2.
Filter element for filtering intake air for an internal combustion engine, featuring an oval cross section defined by a filter body of a zigzag folded annularly closed filter medium having two first opposite curved sections of greater curvature connected to one another by two second opposite curved sections of lesser curvature compared to the first curved sections, with an open end disc, the filter element further comprising an oval peripheral sealing means for in particular radial sealing of the filter element with respect to a filter receptacle, wherein the sealing means is provided on a front side of the end disc facing away from the filter body, wherein the sealing means features two oppositely disposed first curved sections (35, 36) with a stronger curvature and two oppositely disposed second curved sections (38, 39) with a smaller curvature than the first curved sections, wherein the second curved sections (38, 39) of the sealing means are more curved than the second curved sections of the oval cross section defined by the filter body, wherein the first curved sections (35, 36) are connected to one another by the second curved sections in such a way that the first and second curved sections (38, 39) merge each into one another, wherein the oval course of the sealing means is selected in such a way that it features a center point and two symmetry axes intersecting therein, characterized in that the second curved sections (38, 39) of the sealing means are more strongly curved than a comparison curve which is essentially parallel, in particular concentric, comparable in terms of their position on the end disc to the inner and/or outer contour of the open end disc and/or filter body.
A method of generating soft bit values for received symbols transmitted based on a modulation constellation, comprising: demodulating the received symbols via a sequence of demodulation stages, each non-final demodulation stage producing a symbol decision belonging to a non-final effective constellation, each non-final effective constellation used by a non-final one of the demodulation stages including subsets of centroids approximating a region of the modulation constellation, adjacent ones of the subsets having one or more common points so that at least two adjacent subsets overlap, using each symbol decision to choose the non-final effective constellation of the next demodulation stage; determining a final effective constellation for use by a final demodulation stage, wherein the final effective constellation comprises a subset of the modulation constellation which is constructed incrementally over the sequence of demodulation stages, and which is devoid of one or more points included in the modulation constellation; and determining soft bit values for the symbol decisions based on detection metrics computed during the sequence of demodulation stages for the points included in the final effective constellation. demodulating the received symbols via a sequence of demodulation stages, each non-final demodulation stage producing a symbol decision belonging to a non-final effective constellation, each non-final effective constellation used by a non-final one of the demodulation stages including subsets of centroids approximating a region of the modulation constellation, adjacent ones of the subsets having one or more common points so that at least two adjacent subsets overlap, using each symbol decision to choose the non-final effective constellation of the next demodulation stage; determining a final effective constellation for use by a final demodulation stage, wherein the final effective constellation comprises a subset of the modulation constellation which is constructed incrementally over the sequence of demodulation stages, and which is devoid of one or more points included in the modulation constellation; and determining soft bit values for the symbol decisions based on detection metrics computed during the sequence of demodulation stages for the points included in the final effective constellation.
A laundry treating apparatus comprising: a drum configured to rotate about a rotation axis extending in a front-rear direction; and first and second lifters (61a, 61b, 62a, 62b, 63a, 63b) disposed on the drum in the front-rear direction, wherein the first lifter (61a, 62a, 63a) comprises at least one insertion protrusion, the drum has two or more mounting slots in a first group and two or more mounting slots in a second group, the mounting slots in the second group are formed in a region shifted rearward within a range in which the mounting slots in the second group partially overlap the mounting slots in the first group, and the at least one insertion protrusion is selectively inserted into the mounting slot in the first group or the mounting slot in the second group. a drum configured to rotate about a rotation axis extending in a front-rear direction; and first and second lifters (61a, 61b, 62a, 62b, 63a, 63b) disposed on the drum in the front-rear direction, wherein the first lifter (61a, 62a, 63a) comprises at least one insertion protrusion, the drum has two or more mounting slots in a first group and two or more mounting slots in a second group, the mounting slots in the second group are formed in a region shifted rearward within a range in which the mounting slots in the second group partially overlap the mounting slots in the first group, and the at least one insertion protrusion is selectively inserted into the mounting slot in the first group or the mounting slot in the second group.
A vehicle seat in which a seat cushion can be lifted up when an occupant gets in and out of a vehicle, wherein a front link and a rear link for lifting up the cushion frame are positioned between a base member disposed on a vehicle floor and a cushion frame constituting a framework of the seat cushion, the front link and the rear link being respectively positioned in a front position and a rear position in a front-back positional relation in a relative positional relation with reference to an occupant sitting on the seat cushion, wherein proximal end side portions of the front link and the rear link are respectively formed as stationary end side shaft portions (43, 53) that are rotatably connected to the base member, wherein distal end side portions of the front link and the rear link are respectively formed as movable end side shaft portions that are rotatably connected to the cushion frame, wherein a distance from the stationary end side shaft portion to the movable end side shaft portion of the rear link as a driven link is set so as to be shorter than a distance from the stationary end side shaft portion to the movable end side shaft portion of the front link as a concurrently driven link, wherein a range in which the movable end side shaft portion of the front link can exist during rotation of the front link is set so as to be contained in a range positioned above a rotational center connection line connecting the stationary end side shaft portions of the front link and the rear link, wherein a range in which the movable end side shaft portion of the rear link can exist during rotation of the rear link is set so as to be positioned over a range that straddles said rotational center connection line, wherein when the cushion frame is positioned in a lowermost position, the movable end side shaft portion of the front link is positioned above said rotational center connection line while the movable end side shaft portion of the rear link is positioned below said rotational center connection line, wherein only the movable end side shaft portion of the rear link can be raised while the movable end side shaft portion of the front link is not raised until a position of a movable end connection line connecting the movable end side shaft portions (45, 55) is switched from a lower side position to an upper side position with respect to the stationary end side shaft portion of the rear link, and wherein only when the movable end connection line is positioned above the stationary end side shaft portion of the rear link the movable end side shaft portions (45, 55)can be raised while rotated in the same direction in conjunction with each other.
A method of stacking objects, including the steps of receiving a first object on a plurality of forks; moving said plurality of forks to a location above a second object; moving said first object laterally toward a position above said second object; positioning a backstop with respect to said second object and interdigitated with said plurality of forks, the backstop extending below the plurality of forks; and aligning said first object with respect to said backstop and said second object; the method being characterized in that at least one of said plurality of forks includes a rotating belt; in that said step of moving said first object laterally towards a position above said second object includes the step of rotating said belt with respect to one or more said forks wherein said first object is conveyed in a direction of rotation of said belts; in that said step of aligning said first object with respect to said backstop and said second object includes the step of moving said backstop laterally towards said second object to make contact with the second object while moving said first object on a plurality of forks; and in that the method includes the step of squaring the first and second objects by moving a squaring plate laterally towards the backstop.
A swaging tool (1;50;100;200) for fastening a portion to be fastened, wherein the swaging tool (1;50;100;200) is configured to move a collar fitted to a pintail side of a fastening pin toward a pinhead side so as to bring the collar into contact with the portion to be fastened, the pinhead of the fastening pin being positioned on one side of the portion to be fastened through which the fastening pin is inserted and the pintail of the fastening pin being positioned on another side of the portion to be fastened, to swage the collar to the fastening pin with the collar being in contact with the portion to be fastened, and to apply a tensile load to the pintail to break off and remove the pintail, the swaging tool (1;50;100;200) comprising: a holding member configured to hold the pintail of the fastening pin; a swaging member (11;51;101) having a swaging die (19;56;119) formed therein, the swaging die (19;56;119) being configured to come into contact with and swage the collar; and a stroke mechanism (13,53,103) configured to expand and contract a space between the swaging member (11;51;101) and the holding member, wherein the stroke mechanism (13;53;103) includes a rotatable rotary member (25;65;125) and is configured to convert a rotation of the rotary member (25;65;125) to an expansion and contraction of the space between the holding member and the swaging member (11;51;101) and to restrict a rotation of the swaging member (11;51;101) and a rotation of the holding member; the swaging tool being characterized in that the stroke mechanism (13,53,103) is provided between the holding member and the swaging member (11;51;101). a holding member configured to hold the pintail of the fastening pin; a swaging member (11;51;101) having a swaging die (19;56;119) formed therein, the swaging die (19;56;119) being configured to come into contact with and swage the collar; and a stroke mechanism (13,53,103) configured to expand and contract a space between the swaging member (11;51;101) and the holding member, wherein the stroke mechanism (13;53;103) includes a rotatable rotary member (25;65;125) and is configured to convert a rotation of the rotary member (25;65;125) to an expansion and contraction of the space between the holding member and the swaging member (11;51;101) and to restrict a rotation of the swaging member (11;51;101) and a rotation of the holding member; the swaging tool being characterized in that the stroke mechanism (13,53,103) is provided between the holding member and the swaging member (11;51;101).
A user equipment, UE, adapted to communicate with a base station, BS, and a millimeter wave capable small cell, MCSC, the UE comprising circuitry configured to: receive, from the MCSC, MCSC synchronization signals in a second plurality of cell sectors, wherein the second plurality of cell sectors is defined by antennas of the MCSC, wherein each of the MCSC synchronization signals is sent in a different cell sector of the second plurality of cell sectors; measure, at the UE in response to a measurement request, a signal quality for at least a first cell sector of the second plurality of cell sectors; analyze the signal quality for at least the first cell sector of the second plurality of cell sectors to select the first cell sector of the second plurality of cell sectors based on a first signal quality of the first cell sector of the second plurality of cell sectors; communicate, from the UE to a base station, a cell identifier and a first sector identifier associated with the first cell sector of the second plurality of cell sectors; and perform reverse direction training, including transmitting, from the UE to the MCSC, random access codes in a first plurality of sectors, wherein each of the random access codes includes reverse direction training information and beamforming training acknowledgement information, wherein the first plurality of sectors is defined by antennas of the UE, wherein the second plurality of cell sectors and the first plurality of sectors belong to a service area provided by the base station, wherein each random access code of said random access codes is transmitted in a different sector of said first plurality of sectors. receive, from the MCSC, MCSC synchronization signals in a second plurality of cell sectors, wherein the second plurality of cell sectors is defined by antennas of the MCSC, wherein each of the MCSC synchronization signals is sent in a different cell sector of the second plurality of cell sectors; measure, at the UE in response to a measurement request, a signal quality for at least a first cell sector of the second plurality of cell sectors; analyze the signal quality for at least the first cell sector of the second plurality of cell sectors to select the first cell sector of the second plurality of cell sectors based on a first signal quality of the first cell sector of the second plurality of cell sectors; communicate, from the UE to a base station, a cell identifier and a first sector identifier associated with the first cell sector of the second plurality of cell sectors; and perform reverse direction training, including transmitting, from the UE to the MCSC, random access codes in a first plurality of sectors, wherein each of the random access codes includes reverse direction training information and beamforming training acknowledgement information, wherein the first plurality of sectors is defined by antennas of the UE, wherein the second plurality of cell sectors and the first plurality of sectors belong to a service area provided by the base station, wherein each random access code of said random access codes is transmitted in a different sector of said first plurality of sectors.
A thermocouple assembly for use with a thermocouple harness in a gas turbine engine, comprising a thermocouple electrically connected to a resistor, the resistor comprising: an electrical conductor, a mineral insulating material surrounding the conductor, and a metal sheath surrounding the conductor, wherein the metal sheath also surrounds the mineral insulating material, and wherein the electrical conductor comprises a plurality of electrical conductor portions (32, 34) extending side-by-side within the sheath, the plurality of electrical conductor portions connected to each other in series. an electrical conductor, a mineral insulating material surrounding the conductor, and a metal sheath surrounding the conductor, wherein the metal sheath also surrounds the mineral insulating material, and wherein the electrical conductor comprises a plurality of electrical conductor portions (32, 34) extending side-by-side within the sheath, the plurality of electrical conductor portions connected to each other in series.
A method of processing an input signal by a pair of complementary devices (M 2, M 3) having inputs coupled together and having outputs coupled together, wherein an input signal is directly fed to the pair of complementary devices (M 2, M 3), the inputs are further coupled to the outputs via a resistive element (R 1) coupled in series with a first controllable switch (M 4), a second controllable switch (M 1) situated between a source of a specified voltage and the inputs or outputs of the complementary devices (M 2, M 3) and adapted to establish the specified voltage at the inputs or outputs of the complementary devices (M 2, M 3), the pair of complementary devices (M 2, M 3) having a low power consumption mode if a logic level enable signal turns off the first controllable switch (M 4) and turns on the second controllable switch (M 1), the method comprising: turning on the first controllable switch (M 4) and turning off the second controllable switch (M 1) responsive to a transition of the logic level enable signal cause the devices (M 2, M 3) to operate as complementary push-pull devices for amplifying the input signal. turning on the first controllable switch (M 4) and turning off the second controllable switch (M 1) responsive to a transition of the logic level enable signal cause the devices (M 2, M 3) to operate as complementary push-pull devices for amplifying the input signal.
A method of identifying binding sites of a molecule of interest on a receptor protein, said method comprising: a. obtaining a display population, wherein said population comprises cells, phage or virus, each member expressing on its surface a single mutant variant of the receptor protein, wherein said mutant variant has a single amino acid residue mutated to cysteine; b. contacting a cysteine specific probe with said population, wherein said cysteine specific probe binds to cysteine residue on mutant variant; c. contacting said molecule of interest with the display population; and d. detecting binding of molecule of interest to mutant variant of receptor protein, wherein lack of binding of molecule of interest to the mutant variant is indicative that the corresponding amino acid residue in the non-mutated receptor protein at the same position is involved in the molecule of interest binding to receptor protein. a. obtaining a display population, wherein said population comprises cells, phage or virus, each member expressing on its surface a single mutant variant of the receptor protein, wherein said mutant variant has a single amino acid residue mutated to cysteine; b. contacting a cysteine specific probe with said population, wherein said cysteine specific probe binds to cysteine residue on mutant variant; c. contacting said molecule of interest with the display population; and d. detecting binding of molecule of interest to mutant variant of receptor protein, wherein lack of binding of molecule of interest to the mutant variant is indicative that the corresponding amino acid residue in the non-mutated receptor protein at the same position is involved in the molecule of interest binding to receptor protein.