mhurhangee/patent-ind-claim-en huggingface dataset:
A patient support apparatus comprising: a litter frame ; a support deck supported on the litter frame and adapted to support a patient thereon, the litter frame including a plurality of sections ; an actuator adapted to move a component of the patient support apparatus ; a sensor adapted to detect a configuration of the component; a touchscreen ; and a controller in operative communication with the sensor and the touchscreen and configured to receive readings from the sensor, the controller configured to generate a first control screen and a second control screen at the touchscreen wherein the first control screen includes a first control icon for controlling the component and the second control screen includes a second control icon for controlling a function; wherein, in response to a user selecting the second control icon , the controller is configured to determine if a current configuration of the component is in an acceptable state or an unacceptable state for carrying out the function, and if the controller determines the component is currently in the unacceptable state, the controller is further configured to display a third control icon , the third control icon allowing the user to move the component to the acceptable state without accessing the first control screen . a litter frame ; a support deck supported on the litter frame and adapted to support a patient thereon, the litter frame including a plurality of sections ; an actuator adapted to move a component of the patient support apparatus ; a sensor adapted to detect a configuration of the component; a touchscreen ; and a controller in operative communication with the sensor and the touchscreen and configured to receive readings from the sensor, the controller configured to generate a first control screen and a second control screen at the touchscreen wherein the first control screen includes a first control icon for controlling the component and the second control screen includes a second control icon for controlling a function; wherein, in response to a user selecting the second control icon , the controller is configured to determine if a current configuration of the component is in an acceptable state or an unacceptable state for carrying out the function, and if the controller determines the component is currently in the unacceptable state, the controller is further configured to display a third control icon , the third control icon allowing the user to move the component to the acceptable state without accessing the first control screen .
A method for the manufacture of granules of D-allulose which are compressible in the sole presence of a lubricant by direct compression, to form a tablet having a diameter of 13 mm, a thickness of 6 mm, an apparent density of 1.35 g/ml ± 0.02 g/ml, a cylindrical shape with convex faces with a radius of curvature of 13 mm, whose hardness is greater than 50 N, preferably greater than 60 N, preferably greater than 70 N, preferably greater than 80 N, preferably greater than 90 N, preferably greater than 100 N, even more preferably greater than 110 N, comprising: - a step (a) of preparing a granulation liquid comprising D-allulose; - a step (b) of granulating powdery D-allulose, by applying the granulation liquid obtained in step (a) onto moving powdery D-allulose; - a step (c), preferably simultaneous with step (b), of drying the granules obtained in step (b); - an optional step (c') of maturation of the granules obtained in step (c); - a step (d) of recovering the granules obtained in step (c) or (c'). - a step (a) of preparing a granulation liquid comprising D-allulose; - a step (b) of granulating powdery D-allulose, by applying the granulation liquid obtained in step (a) onto moving powdery D-allulose; - a step (c), preferably simultaneous with step (b), of drying the granules obtained in step (b); - an optional step (c') of maturation of the granules obtained in step (c); - a step (d) of recovering the granules obtained in step (c) or (c').
A method for processing capability information of a mobile device, wherein the method comprises: determining , by a mobile device, at least two of a plurality of air interface types supported by a same carrier as target air interface types, wherein the carrier is a cell established by a base station; and sending , by the mobile device, air interface indication information to the base station based on the target air interface types, whereby the base station schedules the mobile device based on the air interface indication information; wherein the air interface indication information comprises target capability information corresponding to the target air interface types, and the target capability information is at least two pieces of capability information in a one-to-one correspondence with the at least two air interface types, and the method further comprises: determining, by the mobile device, the target capability information. determining , by a mobile device, at least two of a plurality of air interface types supported by a same carrier as target air interface types, wherein the carrier is a cell established by a base station; and sending , by the mobile device, air interface indication information to the base station based on the target air interface types, whereby the base station schedules the mobile device based on the air interface indication information; wherein the air interface indication information comprises target capability information corresponding to the target air interface types, and the target capability information is at least two pieces of capability information in a one-to-one correspondence with the at least two air interface types, and the method further comprises: determining, by the mobile device, the target capability information.
A Fourier transform infrared spectrophotometer comprising: a) a sample chamber ; b) an accessory to which accessory information representing a type of the accessory is provided, wherein the accessory is detachably installed in the sample chamber ; c) an interference optical system; d) a common base on which the sample chamber and the interference optical system are mounted: e) accessory information reading means configured to read the accessory information provided to the accessory when the accessory is mounted in the sample chamber; and f) setting condition changing means having a parameter table and configured to change a setting condition for the interference optical system depending on a weight of the accessory based on the accessory information read by the accessory information reading means , such that the effects of slight distortions of said common base due to the weight of the accessory are compensated. a) a sample chamber ; b) an accessory to which accessory information representing a type of the accessory is provided, wherein the accessory is detachably installed in the sample chamber ; c) an interference optical system; d) a common base on which the sample chamber and the interference optical system are mounted: e) accessory information reading means configured to read the accessory information provided to the accessory when the accessory is mounted in the sample chamber; and f) setting condition changing means having a parameter table and configured to change a setting condition for the interference optical system depending on a weight of the accessory based on the accessory information read by the accessory information reading means , such that the effects of slight distortions of said common base due to the weight of the accessory are compensated.
A printing head for a 3-D printing apparatus, comprising: a nozzle arranged to print a layer of a printing material on a receiving surface ; wherein the nozzle comprises an outlet including a texturing member arranged to texture the layer or the receiving surface during printing of said layer , characterised in that the outlet is shaped to form protrusions extending from a main surface of the layer for interlocking with a subsequent layer, the texturing member provides the outlet with a polygonal outline , and in that the polygonal outline comprises a plurality of corners having an angle less than 90 degrees. a nozzle arranged to print a layer of a printing material on a receiving surface ; wherein the nozzle comprises an outlet including a texturing member arranged to texture the layer or the receiving surface during printing of said layer , characterised in that the outlet is shaped to form protrusions extending from a main surface of the layer for interlocking with a subsequent layer, the texturing member provides the outlet with a polygonal outline , and in that the polygonal outline comprises a plurality of corners having an angle less than 90 degrees.
A method for playing sound, comprising: detecting , by a multi-screen terminal, a current opening/closing angle or angles between the respective display screens; selecting , by the multi-screen terminal according to the detected current opening/closing angle or angles between the respective display screens, a group of prestored audio drive parameters, and outputting the group of audio drive parameters to a power amplification module of the multi-screen terminal; and outputting an audio according to the audio drive parameters through loudspeaker provided on the respective display screen; characterized in that the audio drive parameters comprise a filter parameter, a gain parameter and a phase parameter. detecting , by a multi-screen terminal, a current opening/closing angle or angles between the respective display screens; selecting , by the multi-screen terminal according to the detected current opening/closing angle or angles between the respective display screens, a group of prestored audio drive parameters, and outputting the group of audio drive parameters to a power amplification module of the multi-screen terminal; and outputting an audio according to the audio drive parameters through loudspeaker provided on the respective display screen; characterized in that the audio drive parameters comprise a filter parameter, a gain parameter and a phase parameter.
A method of compressing a patient's breast on an imaging system , the imaging system comprising: (a) a gantry , (b) a compression system comprising a compression paddle , the support platform , and an x-ray receptor disposed below the support platform , the compression system rotatable relative to the gantry , and (c) an x-ray tube head comprising an x-ray source and a light source and independently rotatable relative to the gantry and the compression system , the method comprising: generating a working light directed towards the support platform via the light source , wherein the working light generates general illumination of the compression system; compressing the patient's breast between the compression paddle and the support platform , wherein the compression paddle induces a compression force on the patient's breast for immobilization; after the breast has been immobilized, positioning the x-ray tube head relative to the support platform such that the x-ray tube head is substantially orthogonal to the support platform ; changing the working light generated by the light source to a mapping light generated by the light source based on the position of the x-ray tube head being substantially orthogonal to the support platform and the compression force of the compression paddle being greater than a predetermined value, wherein the mapping light corresponds to an x-ray field of the x-ray source ; verifying the patient's breast is located within an x-ray field of the x-ray source via the mapping light. generating a working light directed towards the support platform via the light source , wherein the working light generates general illumination of the compression system; compressing the patient's breast between the compression paddle and the support platform , wherein the compression paddle induces a compression force on the patient's breast for immobilization; after the breast has been immobilized, positioning the x-ray tube head relative to the support platform such that the x-ray tube head is substantially orthogonal to the support platform ; changing the working light generated by the light source to a mapping light generated by the light source based on the position of the x-ray tube head being substantially orthogonal to the support platform and the compression force of the compression paddle being greater than a predetermined value, wherein the mapping light corresponds to an x-ray field of the x-ray source ; verifying the patient's breast is located within an x-ray field of the x-ray source via the mapping light.
Multi-phase busbar for conducting electric energy, comprising a first conducting layer made of a sheet metal which is coated with an electrically insulating material , a first conducting pin mounted to said first conducting layer which extends in a direction perpendicular to the first conducting layer , a first insulating layer of a rigid insulating material arranged on said first conducting layer , said first insulating layer having an opening through which the first conducting pin projects, a second conducting layer made of a sheet metal which is coated with an electrically insulating material , said second conducting layer comprising a first pinhole through which said first conducting pin projects and a second conducting pin which extends in a direction parallel to said first conducting pin , characterized in that said opening in said first insulating layer and said first pinhole in said second conducting layer define a common recess through which said first conducting pin projects, said recess being filled with a resin which forms a material bridge between the first conducting layer and the second conducting layer , said material bridge mechanically clamping said first conducting layer , said first rigid insulating layer and said second conducting layer together.
An apparatus for controlling aggregation of magneto-responsive self-propelled entities in a body comprising: at least three sets of magnetic field sources arranged in three non-parallel axes X, Y and Z for generating a magnetic field, each source of each axis comprising a pair of opposing coils; and a controller connected to at least one of said magnetic field sources to create a three dimensional aggregation zone to which said self-propelled entities will move to and aggregate, at least one of said magnetic field sources being time varied to cause said self-propelled entities to move toward said aggregation zone and stay close to said aggregation zone , wherein said controller causes one of: any two axes of said three axes to maintain a constant magnetic field with current flowing through the opposed coils of each one of these two axes being in opposite directions, while current flowing through the opposed coils of the other axis being in a same direction and changing the direction of this other axis of said three axes to reverse a direction of a produced magnetic field with a switching speed appropriate with a reaction time of said magneto-responsive self-propelled entities depending upon said two axes of said three axes being maintained constant; one axis of said three axes to maintain constant with current flowing through the opposed coils of this one axis being in opposite directions, while current flowing through the opposed coils of each one of the two other axis being in a same direction and changing the direction of these other two axes of said three axes to reverse a direction of a produced magnetic field in a time multiplexing fashion with a switching speed appropriate with a reaction time of said magneto-responsive self-propelled entities at the same time or with a phase delay. any two axes of said three axes to maintain a constant magnetic field with current flowing through the opposed coils of each one of these two axes being in opposite directions, while current flowing through the opposed coils of the other axis being in a same direction and changing the direction of this other axis of said three axes to reverse a direction of a produced magnetic field with a switching speed appropriate with a reaction time of said magneto-responsive self-propelled entities depending upon said two axes of said three axes being maintained constant; one axis of said three axes to maintain constant with current flowing through the opposed coils of this one axis being in opposite directions, while current flowing through the opposed coils of each one of the two other axis being in a same direction and changing the direction of these other two axes of said three axes to reverse a direction of a produced magnetic field in a time multiplexing fashion with a switching speed appropriate with a reaction time of said magneto-responsive self-propelled entities at the same time or with a phase delay.
A method of preparing a hair care composition comprising steps of: Preparing a mixture composition comprising a surfactant and a high melting point fatty compound and a benefit agent other than the surfactant and the high melting point fatty compound; wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof; Separately preparing an aqueous base composition comprising an aqueous carrier and a water soluble polymer, wherein the aqueous base composition comprises a total level of detersive surfactants of 0.1% or less by weight of the aqueous base composition, wherein the detersive surfactant selected from anionic surfactants, zwitterionic surfactant, amphoteric surfactant, and combinations thereof; Mixing the mixture composition and the aqueous base composition, to form a discrete particle of the mixture composition dispersed in the aqueous base composition; wherein the surfactant contained in the discrete particle is a cationic surfactant; wherein the cationic surfactant comprises a mono-long alkyl quaternized ammonium salt selected from the group consisting of behenyl trimethyl ammonium salt, and stearyl trimethyl ammonium salt; and wherein the discrete particle is dispersed in the aqueous base composition, wherein the discrete particle can be observed as discrete particle in the product composition visually, by microscope, however, the discrete particle does not show maltese cross sign when measured by polarized light microscopy. Preparing a mixture composition comprising a surfactant and a high melting point fatty compound and a benefit agent other than the surfactant and the high melting point fatty compound; wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof; Separately preparing an aqueous base composition comprising an aqueous carrier and a water soluble polymer, wherein the aqueous base composition comprises a total level of detersive surfactants of 0.1% or less by weight of the aqueous base composition, wherein the detersive surfactant selected from anionic surfactants, zwitterionic surfactant, amphoteric surfactant, and combinations thereof; Mixing the mixture composition and the aqueous base composition, to form a discrete particle of the mixture composition dispersed in the aqueous base composition; wherein the surfactant contained in the discrete particle is a cationic surfactant; wherein the cationic surfactant comprises a mono-long alkyl quaternized ammonium salt selected from the group consisting of behenyl trimethyl ammonium salt, and stearyl trimethyl ammonium salt; and wherein the discrete particle is dispersed in the aqueous base composition, wherein the discrete particle can be observed as discrete particle in the product composition visually, by microscope, however, the discrete particle does not show maltese cross sign when measured by polarized light microscopy.
A compound of formula (I), which is selected from formula (I)(i) and formula (I)(ii): a tautomer thereof, or a pharmaceutically acceptable salt of said compound or tautomer, wherein: X is CH or N; R 1 is selected from (C 1 -C 4 )alkyl, (C 1 -C 4 )fluoroalkyl, CH 2 OCH 3 , CH 2 SO 2 CH 3 and CH 2 -N-linked triazole; R 2 is selected from hydrogen, halogen, (C 1 -C 4 )alkoxy and cyclopropoxy; and R 3 , R 4 and R 5 are each independently selected from hydrogen and halogen. X is CH or N; R 1 is selected from (C 1 -C 4 )alkyl, (C 1 -C 4 )fluoroalkyl, CH 2 OCH 3 , CH 2 SO 2 CH 3 and CH 2 -N-linked triazole; R 2 is selected from hydrogen, halogen, (C 1 -C 4 )alkoxy and cyclopropoxy; and R 3 , R 4 and R 5 are each independently selected from hydrogen and halogen.
A cooling system for an unmanned aerial vehicle, comprising: a hollow linear support (103A; 103B); a plurality of lift propellers (108A; 108B; 108C; 108D; 108E; 108F) which are arranged on the linear support (103A; 103B); a plurality of motors for driving the lift propellers, wherein each motor is used for driving one lift propeller, and the plurality of motors are arranged in the linear support (103A; 103B); at least one air inlet which is provided on the linear support (103A; 103B); at least one air outlet which is provided on the linear support (103A; 103B); a fan which is arranged in the linear support (103A; 103B) to supply air from an external environment to an interior of the hollow linear support (103A; 103B); and wherein a diameter or width of each air inlet in the at least one air inlet is less than a radius of the linear support (103A; 103B). a hollow linear support (103A; 103B); a plurality of lift propellers (108A; 108B; 108C; 108D; 108E; 108F) which are arranged on the linear support (103A; 103B); a plurality of motors for driving the lift propellers, wherein each motor is used for driving one lift propeller, and the plurality of motors are arranged in the linear support (103A; 103B); at least one air inlet which is provided on the linear support (103A; 103B); at least one air outlet which is provided on the linear support (103A; 103B); a fan which is arranged in the linear support (103A; 103B) to supply air from an external environment to an interior of the hollow linear support (103A; 103B); and wherein a diameter or width of each air inlet in the at least one air inlet is less than a radius of the linear support (103A; 103B).
An aircraft galley message center comprising: a tablet ; a recessed portion defined by an aircraft galley bulkhead; a docking element configured to hold the tablet within the recessed portion and rotate the tablet from an upper recessed portion to a lower recessed portion, substantially flush with a surface of the aircraft wall; a charging element disposed within the docking element ; an upper latch configured to engage a superior surface of the tablet and retain the tablet in the upper recessed portion with a screen facing out; and a lower latch configured to engage the superior surface of the tablet and retain the tablet in the lower recessed portion with the screen of the tablet facing a surface of the recessed portion . a tablet ; a recessed portion defined by an aircraft galley bulkhead; a docking element configured to hold the tablet within the recessed portion and rotate the tablet from an upper recessed portion to a lower recessed portion, substantially flush with a surface of the aircraft wall; a charging element disposed within the docking element ; an upper latch configured to engage a superior surface of the tablet and retain the tablet in the upper recessed portion with a screen facing out; and a lower latch configured to engage the superior surface of the tablet and retain the tablet in the lower recessed portion with the screen of the tablet facing a surface of the recessed portion .