mhurhangee/patent-ind-claim-en huggingface dataset:
A foam discharging device , including: a storage portion that stores a liquid agent ; a foamer mechanism that changes the liquid agent into foam to generate a foam body; and a discharging portion that discharges the foam body, wherein the discharging portion includes: a foam passing chamber that allows the foam body to pass; and one or a plurality of ejection-port forming wall portions that: extend downward below the foam passing chamber ; have a planar shape formed into a closed-loop shape; have an inner space communicating with the foam passing chamber ; and have a lower end having an ejection port formed thereon, and a bottom end portion of at least part of the one or plurality of ejection-port forming wall portions is formed into a shape that has a thickness reduced toward the lower side; the one or plurality of ejection-port forming wall portions includes a first portion and a second portion; and the height position of a lower edge of the first portion is higher than the height position of a lower edge of the second portion, and a lower edge of the one or plurality of ejection-port forming wall portions has a portion that extends horizontally. a storage portion that stores a liquid agent ; a foamer mechanism that changes the liquid agent into foam to generate a foam body; and a discharging portion that discharges the foam body, wherein the discharging portion includes: a foam passing chamber that allows the foam body to pass; and one or a plurality of ejection-port forming wall portions that: extend downward below the foam passing chamber ; have a planar shape formed into a closed-loop shape; have an inner space communicating with the foam passing chamber ; and have a lower end having an ejection port formed thereon, and a foam passing chamber that allows the foam body to pass; and one or a plurality of ejection-port forming wall portions that: extend downward below the foam passing chamber ; have a planar shape formed into a closed-loop shape; have an inner space communicating with the foam passing chamber ; and have a lower end having an ejection port formed thereon, and a bottom end portion of at least part of the one or plurality of ejection-port forming wall portions is formed into a shape that has a thickness reduced toward the lower side; the one or plurality of ejection-port forming wall portions includes a first portion and a second portion; and the height position of a lower edge of the first portion is higher than the height position of a lower edge of the second portion, and a lower edge of the one or plurality of ejection-port forming wall portions has a portion that extends horizontally.
A system comprising: - a controller configured to apply at least one illumination setting to at least one illumination source , thereby causing the illumination source to emit light according to the applied illumination setting; - electronic storage accessible to the controller ; and - a locking device configured to generate a lock command pertaining to the applied illumination setting, wherein the system is configured to mark the applied illumination setting as locked in the electronic storage in response to the lock command; - wherein the controller is configured to receive a control command pertaining to the applied illumination setting, and modify the applied illumination setting according to the received control command unless the applied illumination setting is marked as locked when the control command is received, such that the applied illumination setting is not modified in response to the received control command when the applied illumination setting is locked; characterized in that the locking device is configured to generate the lock command when, via a user interface comprising a plurality of user interface elements, within a predetermined duration of an actuation of a user interface element that causes the illumination setting to be applied a further actuation of the same user interface element occurs and none of the other user interface elements of the user interface have been actuated within the predetermined duration. - a controller configured to apply at least one illumination setting to at least one illumination source , thereby causing the illumination source to emit light according to the applied illumination setting; - electronic storage accessible to the controller ; and - a locking device configured to generate a lock command pertaining to the applied illumination setting, wherein the system is configured to mark the applied illumination setting as locked in the electronic storage in response to the lock command; - wherein the controller is configured to receive a control command pertaining to the applied illumination setting, and modify the applied illumination setting according to the received control command unless the applied illumination setting is marked as locked when the control command is received, such that the applied illumination setting is not modified in response to the received control command when the applied illumination setting is locked;
A stock supply assembly and a stock material support for a dunnage conversion machine , wherein: the stock material support has a support structure , the stock supply assembly is mounted on the support structure is movable between a relatively lower loading position and a relatively higher operating position vertically displaced relative to the loading position, and is rotatable about a horizontal axis between the loading position and the operating position, and the support structure has a gas spring that helps to hold the stock supply assembly in both the loading position and the operating position; characterised in that : the support structure includes a handle that facilitates moving the stock supply assembly between the loading position and the operating position; and the handle position controls locking and unlocking the gas spring to facilitate moving the stock supply assembly between the loading position and the operating position and holding the support structure in a desired position. the stock material support has a support structure , the stock supply assembly is mounted on the support structure is movable between a relatively lower loading position and a relatively higher operating position vertically displaced relative to the loading position, and is rotatable about a horizontal axis between the loading position and the operating position, and the support structure has a gas spring that helps to hold the stock supply assembly in both the loading position and the operating position; characterised in that : the support structure includes a handle that facilitates moving the stock supply assembly between the loading position and the operating position; and the handle position controls locking and unlocking the gas spring to facilitate moving the stock supply assembly between the loading position and the operating position and holding the support structure in a desired position. the support structure includes a handle that facilitates moving the stock supply assembly between the loading position and the operating position; and the handle position controls locking and unlocking the gas spring to facilitate moving the stock supply assembly between the loading position and the operating position and holding the support structure in a desired position.
A grid device comprising: a grate with a top surface , a bottom surface , and a plurality of grid elements arranged in a plane along the grate , wherein the grid elements comprise a top opening of a width of d top in the top surface and a bottom opening of width d bottom in the bottom surface ; the grid elements further comprise a plurality of walls that extend from the edges of the top opening on the top surface of the grate to the corresponding edges of the bottom opening on the bottom surface of the grate ; and wherein d top is larger than d bottom , CHARACTERIZED in that one or more curved support dampeners are arranged on the bottom surface (1 0B) of the grate , and the grate comprises one or more folding axes defined by one or more folding means , along which the grate can fold.
A method comprising: detecting, using wireless access points, neighbor awareness networking, NAN, communications broadcast by a plurality of mobile devices participating in a NAN group; determining a wireless channel on which the NAN group is sending the NAN communications; predicting a destination of the NAN group based on a path, through a predetermined venue, being taken by the NAN group, the path being detected using the wireless access points; and implementing a radio resource management remediation technique to reduce radio interference that is expected to be caused by the NAN communications broadcast by the NAN group at the destination based on the wireless channel and the destination. detecting, using wireless access points, neighbor awareness networking, NAN, communications broadcast by a plurality of mobile devices participating in a NAN group; determining a wireless channel on which the NAN group is sending the NAN communications; predicting a destination of the NAN group based on a path, through a predetermined venue, being taken by the NAN group, the path being detected using the wireless access points; and implementing a radio resource management remediation technique to reduce radio interference that is expected to be caused by the NAN communications broadcast by the NAN group at the destination based on the wireless channel and the destination.
A multi-layer wood composite block comprising a plurality of superimposed layers of wood, and at least one adhesive layer, wherein the at least one adhesive layer is arranged between successive layers of wood, wherein the at least one adhesive layer, in the cured state, has a hardness of between 70 and 100 Shore A, determined according to DIN EN ISO 868, and a hardness of between 20 and 60 Shore D, determined according to DIN EN ISO 868, and wherein the multi-layer wood composite block has a total carbon emission (TVOC) of less than or equal to 50 μg carbon/g determined according to VDA 277. a plurality of superimposed layers of wood, and at least one adhesive layer, wherein the at least one adhesive layer is arranged between successive layers of wood, wherein the at least one adhesive layer, in the cured state, has a hardness of between 70 and 100 Shore A, determined according to DIN EN ISO 868, and a hardness of between 20 and 60 Shore D, determined according to DIN EN ISO 868, and wherein the multi-layer wood composite block has a total carbon emission (TVOC) of less than or equal to 50 μg carbon/g determined according to VDA 277.
A magnetic resonance imaging (MRI) apparatus comprising: a data processor configured to obtain a first k space data of an object comprising a first unacquired line data by undersampling an MR signal based on a first value of an MR parameter said MR parameter being one of a repetition time, a flip angle and an inversion time, and obtain a second k space data of the object comprising a second unacquired line data by undersampling the MR signal based on a second value of the MR parameter, the second value being different from the first value; and an image processor configured to interpolate a portion of the first unacquired line data in the first k space data based on the second k space data, and interpolate a portion of the second unacquired line data in the second k space data based on the first k space data. a data processor configured to obtain a first k space data of an object comprising a first unacquired line data by undersampling an MR signal based on a first value of an MR parameter said MR parameter being one of a repetition time, a flip angle and an inversion time, and obtain a second k space data of the object comprising a second unacquired line data by undersampling the MR signal based on a second value of the MR parameter, the second value being different from the first value; and an image processor configured to interpolate a portion of the first unacquired line data in the first k space data based on the second k space data, and interpolate a portion of the second unacquired line data in the second k space data based on the first k space data.
A diffractive light guide plate comprising: a light guide unit configured to guide lights; a first diffractive optical element including a linear grating repeatedly formed at a predetermined pitch such that lights output from a light source are received and guided on the light guide unit , and configured to diffract the received lights; and a second diffractive optical element disposed in a region distinct from a region where the first diffractive optical element is disposed on one surface of the light guide unit , and including a two-dimensional pattern provided in a region where a virtual first linear pattern (L1) repeatedly arranged at a predetermined pitch along a first direction and a virtual second linear pattern (L2) repeatedly arranged at a predetermined pitch along a second direction different from the first direction intersect each other, wherein the two-dimensional pattern has an elliptical shape protruding from the one surface of the light guide unit, and an angle formed between a long axis (Lx)of the elliptical shape and a direction perpendicular to an extension direction (y) of the linear grating included in the first diffractive optical element is less than 20°, characterized in that : a protruding height of the two-dimensional pattern is 0.084 times to 0.113 times a wavelength of the light output from the light source. a light guide unit configured to guide lights; a first diffractive optical element including a linear grating repeatedly formed at a predetermined pitch such that lights output from a light source are received and guided on the light guide unit , and configured to diffract the received lights; and a second diffractive optical element disposed in a region distinct from a region where the first diffractive optical element is disposed on one surface of the light guide unit , and including a two-dimensional pattern provided in a region where a virtual first linear pattern (L1) repeatedly arranged at a predetermined pitch along a first direction and a virtual second linear pattern (L2) repeatedly arranged at a predetermined pitch along a second direction different from the first direction intersect each other, wherein the two-dimensional pattern has an elliptical shape protruding from the one surface of the light guide unit, and an angle formed between a long axis (Lx)of the elliptical shape and a direction perpendicular to an extension direction (y) of the linear grating included in the first diffractive optical element is less than 20°, characterized in that : a protruding height of the two-dimensional pattern is 0.084 times to 0.113 times a wavelength of the light output from the light source.
A multilayer polyethylene (PE) geomembrane liner to be used in temperatures up to 100 °C and comprising a number N of co-extruded stacked layers with N ≥ 2, each layer being made from: a given amount of a PE masterbatch composition comprising a PE resin and additives, the PE masterbatch being free of acid neutralizer, and a given amount of a PE metallocene based resin, the PE metallocene based resin being part of the family of Polyethylene Resin of Raised Temperature or PERT. a given amount of a PE masterbatch composition comprising a PE resin and additives, the PE masterbatch being free of acid neutralizer, and a given amount of a PE metallocene based resin, the PE metallocene based resin being part of the family of Polyethylene Resin of Raised Temperature or PERT.
Equipped photovoltaic cell comprising a first assembly of a single photovoltaic cell semicircular or semihexagonal in shape and a rectangular protection glass of the length of the base of the semicircle or of the semihexagon, positioned on the active face of the first assembly, the surface of the protective glass covering more than the entirety of the active face of the first assembly, the outline of the photovoltaic cell fitting inside the rectangular outline of the protective glass , and comprising a second assembly of at least one portion of the protective glass extending from the active face of the first assembly, the second assembly comprising an optical reflective surface .
A system for implementing a dynamic three-dimensional lung map view for navigating a probe inside a patient's lungs, the system comprising: a navigation system having a navigation plan loaded therein, the navigation plan including a planned pathway shown in a 3D model generated from a plurality of CT images; a probe for insertion into a patient's airways, the probe including a location sensor in operative communication with the navigation system; and a workstation having a display , the workstation configured to carry out the steps of registering a sensed location of the probe with the planned pathway; selecting, or enabling the selection of, a target in the navigation plan; presenting on the display a view of the 3D model showing the planned pathway and indicating the sensed location of the probe; automatically iteratively adjusting a view point from which the 3D model showing the planned pathway is presented based on sensed locations of the probe as it is navigated through the lung of a patient; and updating the presented view by removing at least a part of an object forming part of the 3D model which is visible from the current view point, wherein removing at least part of an object comprises showing the object with a higher transparency than objects which are not hidden. a navigation system having a navigation plan loaded therein, the navigation plan including a planned pathway shown in a 3D model generated from a plurality of CT images; a probe for insertion into a patient's airways, the probe including a location sensor in operative communication with the navigation system; and a workstation having a display , the workstation configured to carry out the steps of registering a sensed location of the probe with the planned pathway; selecting, or enabling the selection of, a target in the navigation plan; presenting on the display a view of the 3D model showing the planned pathway and indicating the sensed location of the probe; automatically iteratively adjusting a view point from which the 3D model showing the planned pathway is presented based on sensed locations of the probe as it is navigated through the lung of a patient; and updating the presented view by removing at least a part of an object forming part of the 3D model which is visible from the current view point, wherein removing at least part of an object comprises showing the object with a higher transparency than objects which are not hidden.
A reflector for a base station antenna, comprising a main body of the reflector, wherein the main body of the reflector is a monolayer or multilayer structure, wherein each layer of the structure comprises a plurality of chambers for accommodating respective phase shifters of the base station antenna, wherein the main body and the chambers are integrally formed, wherein each chamber comprises a guide groove and a rib placed in the chamber, wherein the guide groove and the rib are configured for fixing and limiting said phase shifters, wherein a sliding dielectric block of each phase shifter can be moved along a respective one of the guide grooves , wherein the main body further comprises narrow slots parallel to and near to both side edges of a first surface of the reflector, wherein the narrow slots and the guide grooves are parallel and connected to each other, and the narrow slots are for connecting the phase shifters to a drive mechanism , wherein the first surface of the reflector is configured for fixing radiation devices of the base station antenna.
A composition, comprising: a first compound; and a second compound, wherein the first compound is an organometallic compound comprising platinum and a tetradentate ligand bound to the platinum, the second compound is an organometallic compound comprising iridium, characterised in that μ(Pt) is 0.5 debye to 5.0 debye, μ(Pt) is less than μ(Ir), μ(Pt) is a dipole moment of the first compound, μ(Ir) is a dipole moment of the second compound, each of μ(Pt) and μ(Ir) is calculated based on density functional theory (DFT), the first compound emits a first light having a first spectrum, and λP(Pt) is an emission peak wavelength of the first spectrum, the second compound emits a second light having a second spectrum, and λP(Ir) is an emission peak wavelength of the second spectrum, λP(Pt) is evaluated from a first photoluminescence spectrum measured for a first film, λP(Ir) is evaluated from a second photoluminescence spectrum measured for a second film, the first film comprises the first compound, and the second film comprises the second compound, characterised in that an absolute value of a difference between λP(Pt) and λP(Ir) is 0 nanometers to 30 nanometers. a first compound; and a second compound, wherein the first compound is an organometallic compound comprising platinum and a tetradentate ligand bound to the platinum, the second compound is an organometallic compound comprising iridium, characterised in that μ(Pt) is 0.5 debye to 5.0 debye, μ(Pt) is less than μ(Ir), μ(Pt) is a dipole moment of the first compound, μ(Ir) is a dipole moment of the second compound, each of μ(Pt) and μ(Ir) is calculated based on density functional theory (DFT), the first compound emits a first light having a first spectrum, and λP(Pt) is an emission peak wavelength of the first spectrum, the second compound emits a second light having a second spectrum, and λP(Ir) is an emission peak wavelength of the second spectrum, λP(Pt) is evaluated from a first photoluminescence spectrum measured for a first film, λP(Ir) is evaluated from a second photoluminescence spectrum measured for a second film, the first film comprises the first compound, and the second film comprises the second compound, characterised in that an absolute value of a difference between λP(Pt) and λP(Ir) is 0 nanometers to 30 nanometers.
A heat sensing system for use in a flight vehicle , the sensor system comprising: a main antenna configured for sending and/or receipt of a signal; a radome surrounding the main antenna; at least one auxiliary antenna (38a-e, 86, 98) associated with a region (42a-e) of the radome, the at least one auxiliary antenna being configured to receive infrared or optical energy to determine a measured temperature of the region based on the infrared or optical energy; a processor operatively coupled to the auxiliary antenna and configured to identify whether the measured temperature exceeds a predetermined temperature; and a controller operatively coupled to the at least one auxiliary antenna and the processor, wherein the controller is configured to receive information from the processor regarding the measured temperature; and wherein the controller is configured to rotate the flight vehicle to a different orientation when the measured temperature exceeds the predetermined temperature. a main antenna configured for sending and/or receipt of a signal; a radome surrounding the main antenna; at least one auxiliary antenna (38a-e, 86, 98) associated with a region (42a-e) of the radome, the at least one auxiliary antenna being configured to receive infrared or optical energy to determine a measured temperature of the region based on the infrared or optical energy; a processor operatively coupled to the auxiliary antenna and configured to identify whether the measured temperature exceeds a predetermined temperature; and a controller operatively coupled to the at least one auxiliary antenna and the processor, wherein the controller is configured to receive information from the processor regarding the measured temperature; and wherein the controller is configured to rotate the flight vehicle to a different orientation when the measured temperature exceeds the predetermined temperature.