mhurhangee/ep-ind-claims huggingface dataset:
Aircraft system comprising: - an aircraft (A, A.1, A.2) comprising at least one bay (1, 1.1, 1.2) for receiving different types of standardized modules, characterized in that - the bay (1, 1.1, 1.2) is configured to receive at least two different types of energy modules (6, 7, 8, 9, 10, 11) as standardized modules, wherein the bay (1, 1.1, 1.2) comprises connection means for connecting one or more interface(s) of the energy modules to an aircraft energy supply system, wherein the bay (1, 1.1, 1.2) is configured to receive all of the different types of energy modules (6, 7, 8, 9, 10, 11) in an interchangeable manner, and - the aircraft system comprises at least two energy modules (6, 7, 8, 9, 10, 11) configured to be charged into the bay (1, 1.1, 1.2) of the aircraft (A, A.1, A.2), wherein a first energy module of the at least two energy modules (6, 7, 8, 9, 10, 11) comprises a conventional fuel tank and wherein a second energy module of the at least two energy modules (6, 7, 8, 9, 10, 11) comprises a battery. - an aircraft (A, A.1, A.2) comprising at least one bay (1, 1.1, 1.2) for receiving different types of standardized modules, - the bay (1, 1.1, 1.2) is configured to receive at least two different types of energy modules (6, 7, 8, 9, 10, 11) as standardized modules, wherein the bay (1, 1.1, 1.2) comprises connection means for connecting one or more interface(s) of the energy modules to an aircraft energy supply system, wherein the bay (1, 1.1, 1.2) is configured to receive all of the different types of energy modules (6, 7, 8, 9, 10, 11) in an interchangeable manner, and - the aircraft system comprises at least two energy modules (6, 7, 8, 9, 10, 11) configured to be charged into the bay (1, 1.1, 1.2) of the aircraft (A, A.1, A.2), wherein a first energy module of the at least two energy modules (6, 7, 8, 9, 10, 11) comprises a conventional fuel tank and wherein a second energy module of the at least two energy modules (6, 7, 8, 9, 10, 11) comprises a battery.
A sensing device for air cushion bed being placed in said air cushion bed outside a plurality of air bladders thereof, comprising: a first sheet being provided with at least one inflation valve; a second sheet being connected to the first sheet, so that an air chamber is formed between the connected first and second sheets; and the air chamber being communicable with the air bladders in the air cushion bed via the at least one inflation valve connected to an external tube system; a first sensing element being disposed outside the air chamber and having at least one deformation sensor and at least one acceleration sensor provided thereon; and a second sensing element being disposed inside the air chamber, and including an upper conductive sensing sheet attached to an inner upper side of the air chamber and a lower conductive sensing sheet attached to an inner lower side of the air chamber. a first sheet being provided with at least one inflation valve; a second sheet being connected to the first sheet, so that an air chamber is formed between the connected first and second sheets; and the air chamber being communicable with the air bladders in the air cushion bed via the at least one inflation valve connected to an external tube system; a first sensing element being disposed outside the air chamber and having at least one deformation sensor and at least one acceleration sensor provided thereon; and a second sensing element being disposed inside the air chamber, and including an upper conductive sensing sheet attached to an inner upper side of the air chamber and a lower conductive sensing sheet attached to an inner lower side of the air chamber.
A light amount adjusting device comprising: a case comprising an aperture through which light passes; a link rotatable on the case; a driving unit connected to the link and generating driving force for rotating the link; a first linear movement wing and a second linear movement wing respectively connected to a side of a rotation center of the link and other side of the rotation center of the link, each of the first and second linear movement wings being placed on the case and linearly movable between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; a first rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; and a second rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened, characterized in that rotation centers of the first and second rotation wings (70, 80) are on a straight line passing through a center of the aperture of the case and the rotation center of the link. a case comprising an aperture through which light passes; a link rotatable on the case; a driving unit connected to the link and generating driving force for rotating the link; a first linear movement wing and a second linear movement wing respectively connected to a side of a rotation center of the link and other side of the rotation center of the link, each of the first and second linear movement wings being placed on the case and linearly movable between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; a first rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; and a second rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened, characterized in that rotation centers of the first and second rotation wings (70, 80) are on a straight line passing through a center of the aperture of the case and the rotation center of the link.
A thermochromic polymer composition comprising: a base polymer material; a temperature sensitive material, which changes a color of the thermochromic polymer composition in response to a temperature change; and a stabilizer, which enhances stability performance of the thermochromic polymer composition, characterised in that the weight ratio of the temperature sensitive material to the stabilizer is from 1:0.1 to 1:10, a total amount of the temperature sensitive material is from about 0.01 wt% to about 20%, based on the total weight of the thermochromic polymer composition as a composition formed from a masterbatch; and a total amount of the stabilizer is from about 1 wt% to about 30wt% based on the total weight of the thermochromic polymer composition as a composition formed from a masterbatch.. a base polymer material; a temperature sensitive material, which changes a color of the thermochromic polymer composition in response to a temperature change; and a stabilizer, which enhances stability performance of the thermochromic polymer composition, characterised in that the weight ratio of the temperature sensitive material to the stabilizer is from 1:0.1 to 1:10, a total amount of the temperature sensitive material is from about 0.01 wt% to about 20%, based on the total weight of the thermochromic polymer composition as a composition formed from a masterbatch; and a total amount of the stabilizer is from about 1 wt% to about 30wt% based on the total weight of the thermochromic polymer composition as a composition formed from a masterbatch.. the weight ratio of the temperature sensitive material to the stabilizer is from 1:0.1 to 1:10, a total amount of the temperature sensitive material is from about 0.01 wt% to about 20%, based on the total weight of the thermochromic polymer composition as a composition formed from a masterbatch; and a total amount of the stabilizer is from about 1 wt% to about 30wt% based on the total weight of the thermochromic polymer composition as a composition formed from a masterbatch..
A method of processing a color image into a renderable image to be printed on a medium, the color image comprising a plurality of pixels, each pixel having colorimetry defined in a first color space and the renderable image comprising a plurality of renderable pixels defined by a device-vector in a second color space, the second color space being the color space of a rendering device, the method comprising the steps of: for each pixel: selecting, from a look-up table stored in a storage device, a device-vector defined in the second color space based on the colorimetry of the pixel, the device-vector comprising a plurality of elements, each element including an identifier of a Neugebauer Primary, N_k, and an accumulated weighting, ∑ i = 0 k α _ i, wherein α_i is the fraction of the medium to be covered by each Neugebauer Primary; selecting the first element of the device-vector whose accumulated weighting is greater than a threshold value associated with the pixel; determining the levels for each ink of the second color space for the currently selected element of the selected device-vector to convert the pixel into a renderable pixel. for each pixel: selecting, from a look-up table stored in a storage device, a device-vector defined in the second color space based on the colorimetry of the pixel, the device-vector comprising a plurality of elements, each element including an identifier of a Neugebauer Primary, N_k, and an accumulated weighting, ∑ i = 0 k α _ i, wherein α_i is the fraction of the medium to be covered by each Neugebauer Primary; selecting the first element of the device-vector whose accumulated weighting is greater than a threshold value associated with the pixel; determining the levels for each ink of the second color space for the currently selected element of the selected device-vector to convert the pixel into a renderable pixel. selecting, from a look-up table stored in a storage device, a device-vector defined in the second color space based on the colorimetry of the pixel, the device-vector comprising a plurality of elements, each element including an identifier of a Neugebauer Primary, N_k, and an accumulated weighting, ∑ i = 0 k α _ i, wherein α_i is the fraction of the medium to be covered by each Neugebauer Primary; selecting the first element of the device-vector whose accumulated weighting is greater than a threshold value associated with the pixel; determining the levels for each ink of the second color space for the currently selected element of the selected device-vector to convert the pixel into a renderable pixel.
A polypeptide that binds human RANKL, said polypeptide comprising: a first amino acid sequence comprising amino acids 1 through 215 of human osteoprotegerin (GenBank: U94332.1); and a second amino acid sequence comprising amino acids 103 through 329 of human immunoglobulin gamma-1 Fc (GenBank: J00228.1), wherein said polypeptide is capable of inhibiting RANKL-induced osteoclast differentiation in an in vitro cell-based assay with an EC50 of 50 ng/ml or to no more than 10% at a concentration of 100 ng/ml. a first amino acid sequence comprising amino acids 1 through 215 of human osteoprotegerin (GenBank: U94332.1); and a second amino acid sequence comprising amino acids 103 through 329 of human immunoglobulin gamma-1 Fc (GenBank: J00228.1),
A method of editing a user interface, wherein said UI is used in a diagnostic medical device comprising a display unit for displaying a captured image of a target object and a control panel comprising a touch screen having a display function other than for displaying the captured image via the control panel, wherein the method comprises: editing the UI based on externally input signals; displaying the edited UI via the control panel; obtaining user identification information regarding the user; and storing the edited UI based on obtained user identification information; wherein editing the UI based on externally input signals comprises resizing the UI based on user input. editing the UI based on externally input signals; displaying the edited UI via the control panel; obtaining user identification information regarding the user; and storing the edited UI based on obtained user identification information; wherein editing the UI based on externally input signals comprises resizing the UI based on user input.
An electronic component mounting apparatus comprising: a carrying device carrying a printed board in a first direction and having a first side and a second side along the first direction; a component feeding device supplying electronic components; a first beam and a second beam that are movable in a second direction; a first mounting head movable along the first beam and comprising a first suction nozzle; and a second mounting head movable along the second beam and comprising a second suction nozzle, wherein the component feeding device is provided on the first side of the carrying device and no component feeding device is provided on the second side of the carrying device, and the first and second suction nozzles move independently by movements of the first and second beams (4A, B) and the first and second mounting heads so that the first and second suction nozzles pick up respective electronic components from the component feeding device and mount the picked up electronic components on a printed board, characterized in that each mounting head can pick up components from the left and from the right side of the component feeding device. a carrying device carrying a printed board in a first direction and having a first side and a second side along the first direction; a component feeding device supplying electronic components; a first beam and a second beam that are movable in a second direction; a first mounting head movable along the first beam and comprising a first suction nozzle; and a second mounting head movable along the second beam and comprising a second suction nozzle, wherein the component feeding device is provided on the first side of the carrying device and no component feeding device is provided on the second side of the carrying device, and the first and second suction nozzles move independently by movements of the first and second beams (4A, B) and the first and second mounting heads so that the first and second suction nozzles pick up respective electronic components from the component feeding device and mount the picked up electronic components on a printed board, characterized in that each mounting head can pick up components from the left and from the right side of the component feeding device.
A display unit for displaying articles comprising: a display portion for displaying a plurality of articles sensing means comprising an antenna, a communication portion and a controller board configured to sense the presence of identifier tags associated with each of said articles, thereby sensing the presence of each article; and an integral output means configured for providing information directly to a consumer; wherein in use, in response to sensing the removal of an identifier tag from the display portion, the sensing means (22, 60, 62) is further configured to generate a response signal dependent on the article removed and said response signal is configured to initiate output of said information via said output means, such that the consumer is provided with information specific to the tagged article sensed as having been removed; and wherein the output means is provided with a means for receiving an input from a consumer; characterised in that, the controller board comprises an anti-collision functionality which is configured to differentiate between multiple identifier tags that are simultaneously removed and issue a response dependent on a set of pre-programmed priorities. a display portion for displaying a plurality of articles sensing means comprising an antenna, a communication portion and a controller board configured to sense the presence of identifier tags associated with each of said articles, thereby sensing the presence of each article; and an integral output means configured for providing information directly to a consumer; wherein in use, in response to sensing the removal of an identifier tag from the display portion, the sensing means (22, 60, 62) is further configured to generate a response signal dependent on the article removed and said response signal is configured to initiate output of said information via said output means, such that the consumer is provided with information specific to the tagged article sensed as having been removed; and wherein the output means is provided with a means for receiving an input from a consumer; characterised in that, the controller board comprises an anti-collision functionality which is configured to differentiate between multiple identifier tags that are simultaneously removed and issue a response dependent on a set of pre-programmed priorities.
A light emitting device, comprising: a light emitting element disposed on a light source substrate, a reflection wall disposed on the surface of the light source substrate and surrounding a the light emitting element; and a diffusion reflection sheet that includes a plurality of particles and permits entrance of emitted light from the light emitting element and entrance of reflected light from the reflection wall, wherein the reflection wall includes a lower wall section and a higher wall section having different heights, and wherein the lower wall section is located closer to the light emitting element, wherein the higher wall section is extended in a direction perpendicular to the light source substrate, wherein the light emitting device includes a plurality of segments (Sg) partitioned by the reflection wall, wherein each segment includes at least one light emitting element, and the light emitting device further comprises a driver IC configured to drive the light emitting elements, wherein light emission states of the light emitting elements are controlled from a segment to a segment by the driver IC to adjust the light emission state of each segment in accordance with pictures to be displayed on a display panel, characterised in that the light emitting element is a side-emitting type and has a flip chip structure, in that a gap exists between a base of the lower wall section and the light emitting element, and in that the base of the lower wall section is inclined from the surface of the light source substrate and configured to reflect light from the light emitting element to the diffusion reflection sheet. a light emitting element disposed on a light source substrate, a reflection wall disposed on the surface of the light source substrate and surrounding a the light emitting element; and a diffusion reflection sheet that includes a plurality of particles and permits entrance of emitted light from the light emitting element and entrance of reflected light from the reflection wall, wherein the reflection wall includes a lower wall section and a higher wall section having different heights, and wherein the lower wall section is located closer to the light emitting element, wherein the higher wall section is extended in a direction perpendicular to the light source substrate, wherein the light emitting device includes a plurality of segments (Sg) partitioned by the reflection wall, wherein each segment includes at least one light emitting element, and the light emitting device further comprises a driver IC configured to drive the light emitting elements, wherein light emission states of the light emitting elements are controlled from a segment to a segment by the driver IC to adjust the light emission state of each segment in accordance with pictures to be displayed on a display panel,
A system for providing a medical diagnosis, comprising: a first sensor (102, 104) configured to be attached to a head of a subject and configured to measure a neural rhythm of the subject over a recording time and generate a first series of sensor data of the subject comprising one or more neural micro-rhythm waveforms; a second sensor (106, 108, 110, 112, 114, 116, 118) configured to be attached to a body part of the subject and configured to measure a movement rhythm of the subject over a recording time and generate a second series of sensor data of the subject comprising one or more micro-movement waveforms; a processor; and a non-transitory computer readable medium containing programming instructions that, when executed, cause the processor to: perform a power spectral analysis of a first neural micro-rhythm waveform in the first series of sensor data and a second micro-movement waveform in the second series of sensor data wherein performing the power spectral analysis comprises generating a first spectrogram from the first micro-rhythm waveform and a second spectrogram from the second micro-rhythm waveform and comparing the first spectrogram and the second spectrogram to generate a cross-spectrum coherence graph representing the coherence between the first and second micro-rhythm waveforms to determine an amount of volition in the subject's body based on the coherence. a first sensor (102, 104) configured to be attached to a head of a subject and configured to measure a neural rhythm of the subject over a recording time and generate a first series of sensor data of the subject comprising one or more neural micro-rhythm waveforms; a second sensor (106, 108, 110, 112, 114, 116, 118) configured to be attached to a body part of the subject and configured to measure a movement rhythm of the subject over a recording time and generate a second series of sensor data of the subject comprising one or more micro-movement waveforms; a processor; and a non-transitory computer readable medium containing programming instructions that, when executed, cause the processor to: perform a power spectral analysis of a first neural micro-rhythm waveform in the first series of sensor data and a second micro-movement waveform in the second series of sensor data wherein performing the power spectral analysis comprises generating a first spectrogram from the first micro-rhythm waveform and a second spectrogram from the second micro-rhythm waveform and comparing the first spectrogram and the second spectrogram to generate a cross-spectrum coherence graph representing the coherence between the first and second micro-rhythm waveforms to determine an amount of volition in the subject's body based on the coherence.