mhurhangee/patent-ind-claim-en huggingface dataset:
An antistatic roasted coffee bean grinder device, comprising a grinding chamber , a pair of grinders, one on top of the other, housed within said grinding chamber , one of these grinders being rotatable relative to the other which is kept stationary, a support for at least said rotatable grinder, a drive member , connected to said support for rotating said rotatable grinder, an electronic control and command unit , said grinding chamber , which contains said grinders, having a first opening for introducing the roasted coffee beans to be ground between the grinders, and a second opening to discharging the ground product, characterized in that it comprises a moistening apparatus for moistening the beans of the product to be ground, said moistening apparatus being adapted to feed a predetermined amount of wetting substance to the roasted coffee beans to be ground, said amount being dosed according to the amount of beans to be ground and of the moisture degree thereof.
An article of apparel having a three-dimensional or tubular knit textile region, the three-dimensional or tubular knit textile region having an internal side and an opposite external side configured to be exposed during use, the three-dimensional or tubular knit textile region comprising: a plurality of yarns in an arrangement of interlocked loops; and a series of parallel rows of loops on the external side formed from the arrangement of interlocked loops, the rows of loops each having a pair of opposite side portions and a top portion therebetween facing outward from the three-dimensional or tubular knit textile region and a printed ink design on the external side of the three-dimensional or tubular knit textile region formed from ink applied to the parallel rows of loops; characterized by a plurality of channels on the external side formed between adjacent ones of the parallel rows of loops, each of the plurality of channels including a base channel portion facing outward from the three-dimensional or tubular knit textile region and opposing side portions of the adjacent rows of the loops that form the channel ; and said printed ink design on the external side of the three-dimensional or tubular knit textile region formed from ink also applied to the channels . a plurality of yarns in an arrangement of interlocked loops; and a series of parallel rows of loops on the external side formed from the arrangement of interlocked loops, the rows of loops each having a pair of opposite side portions and a top portion therebetween facing outward from the three-dimensional or tubular knit textile region and a printed ink design on the external side of the three-dimensional or tubular knit textile region formed from ink applied to the parallel rows of loops; characterized by a plurality of channels on the external side formed between adjacent ones of the parallel rows of loops, each of the plurality of channels including a base channel portion facing outward from the three-dimensional or tubular knit textile region and opposing side portions of the adjacent rows of the loops that form the channel ; and said printed ink design on the external side of the three-dimensional or tubular knit textile region formed from ink also applied to the channels .
Method of immune-detection of the measurement of endogenous complexes of Glucose-regulated protein94 (Grp94) with Immunoglobulin G (IgG), wherein endogenous complexes of Grp94-IgG are a diagnostic and prognostic tumor marker, and the method for measuring the complexes is a sandwich ELISA that employs a capture or primary antibody, preferentially attached to wells of a plate, able to recognize one or more epitopes of Grp94 of the complex present in the biological sample, and a detection or secondary antibody able to recognize one or more epitopes of IgG of the complex and associated with a detection system employing either an enzyme or substances of another nature.
A wireless receiving apparatus comprising: a plurality of wireless receivers (210-1, 210-2) configured to receive a plurality of sub-streams constituting a video frame; and a data processor configured to: determine whether an error occurs in each of the plurality of sub-streams; in response to determining that an error occurs in at least one of the plurality of sub-streams, transmit an immediately-preceding video frame to a display that is electrically connected'to the wireless receiving apparatus ; determine whether reception of the plurality of sub-streams constituting the video frame is completed using total transmission period information; in response to determining that the reception of the plurality of sub-streams constituting the video frame is not completed, transmit the immediately-preceding video frame to the display, in response to determining that an error does not occur in any of the plurality of sub-streams and the reception of the plurality of sub-streams constituting the video frame is completed, merge the plurality of sub-streams to generate the video frame, and transmit the video frame to the display. a plurality of wireless receivers (210-1, 210-2) configured to receive a plurality of sub-streams constituting a video frame; and a data processor configured to: determine whether an error occurs in each of the plurality of sub-streams; in response to determining that an error occurs in at least one of the plurality of sub-streams, transmit an immediately-preceding video frame to a display that is electrically connected'to the wireless receiving apparatus ; determine whether reception of the plurality of sub-streams constituting the video frame is completed using total transmission period information; in response to determining that the reception of the plurality of sub-streams constituting the video frame is not completed, transmit the immediately-preceding video frame to the display, in response to determining that an error does not occur in any of the plurality of sub-streams and the reception of the plurality of sub-streams constituting the video frame is completed, merge the plurality of sub-streams to generate the video frame, and transmit the video frame to the display. determine whether an error occurs in each of the plurality of sub-streams; in response to determining that an error occurs in at least one of the plurality of sub-streams, transmit an immediately-preceding video frame to a display that is electrically connected'to the wireless receiving apparatus ; determine whether reception of the plurality of sub-streams constituting the video frame is completed using total transmission period information; in response to determining that the reception of the plurality of sub-streams constituting the video frame is not completed, transmit the immediately-preceding video frame to the display, in response to determining that an error does not occur in any of the plurality of sub-streams and the reception of the plurality of sub-streams constituting the video frame is completed, merge the plurality of sub-streams to generate the video frame, and transmit the video frame to the display.
A ceiling ventilation hood and fire protection system , the ceiling ventilation hood having a upper plane and a lower plane with a filter disposed between the upper and lower planes, the fire protection system being effective to address a fire below the ceiling ventilation hood independent of airflow through the filter , the ceiling ventilation hood and fire protection system comprising: at least two nozzles each having an outlet defining a discharge axis (B--B) with the outlet disposed in the ceiling ventilation hood between the upper and lower planes , characterized in that the at least two nozzles provide overlapping protection of a hazard zone (HAZ) below the ceiling ventilation hood; wherein the filter has a face with a first edge defining a first height relative to the lower plane , a second edge spaced from the first edge defining a second height relative to the lower plane , and a normal axis (C--C) between the first and second edges extending perpendicular to the filter face and intersecting the discharge axis of the nozzle , the outlet of each of the at least two nozzles being located laterally offset from a central plane (CP) bisecting the hazard zone (HAZ) and between the filter and the central plane (CP) bisecting the hazard zone (HAZ). at least two nozzles each having an outlet defining a discharge axis (B--B) with the outlet disposed in the ceiling ventilation hood between the upper and lower planes , characterized in that the at least two nozzles provide overlapping protection of a hazard zone (HAZ) below the ceiling ventilation hood; wherein the filter has a face with a first edge defining a first height relative to the lower plane , a second edge spaced from the first edge defining a second height relative to the lower plane , and a normal axis (C--C) between the first and second edges extending perpendicular to the filter face and intersecting the discharge axis of the nozzle , the outlet of each of the at least two nozzles being located laterally offset from a central plane (CP) bisecting the hazard zone (HAZ) and between the filter and the central plane (CP) bisecting the hazard zone (HAZ).
Method for providing mobile connectivity in a vehicle with a cellular connectivity unit using a first subscriber identification module associated with a first subscription for a first Mobile Network Operator and at least a second subscriber identification module associated with a second subscription for a second Mobile Network Operator, comprising the following steps performed by the cellular connectivity unit : - configuring in a cellular unit of the cellular connectivity unit a first Access Point Name interface and at least one further Access Point Name interface , wherein both the first Access Point Name interface and the at least one further Access Point Name interface are related to the first subscriber identification module ; - using the first Access Point Name interface for network registration and data transport of the cellular connectivity unit assigned to the first subscriber identification module ; and - using the at least one further Access Point Name interface for network registration and data transport of the cellular connectivity unit assigned to the second subscriber identification module . - configuring in a cellular unit of the cellular connectivity unit a first Access Point Name interface and at least one further Access Point Name interface , wherein both the first Access Point Name interface and the at least one further Access Point Name interface are related to the first subscriber identification module ; - using the first Access Point Name interface for network registration and data transport of the cellular connectivity unit assigned to the first subscriber identification module ; and - using the at least one further Access Point Name interface for network registration and data transport of the cellular connectivity unit assigned to the second subscriber identification module .
A method for compacting a ballast bed of a track in layers by means of a track maintenance machine travelling on the track , wherein ballast located underneath sleepers of the track is compacted in at least two layers lying one on top of the other, in that in a first compaction step a lower ballast layer is compacted and thereafter in a second compaction step an upper ballast layer lying above the lower ballast layer is compacted by means of a tamping procedure, wherein, prior to compacting, the lower ballast layer and the upper ballast layer are jointly introduced into the track , characterized in that in the first compaction step ballast stones are set only in vibration by means of vibrating tamping tines of a tamping unit arranged on the track maintenance machine are lowered in such a manner that tamping tine plates arranged at the free ends of the tamping tines penetrate into the lower ballast layer and while vibrating are kept in position there for a prescribed time period, and that only in the second compaction step a squeezing motion takes place and ballast stones are set in vibration by means of the tamping tine plates of the vibrating tamping tines penetrate into the upper ballast layer and are squeezed towards one another.
Parametric frequency-domain audio encoder, configured to quantize spectral lines of a spectrum of a first channel of a current frame of a multichannel audio signal using preliminary scale factors of scale factor bands within the spectrum; identify first scale factor bands in the spectrum within which all spectral lines are quantized to zero, and second scale factor bands of the spectrum within which at least one spectral line is quantized to non-zero, within a prediction and/or rate control loop, fill the spectral lines within a predetermined scale factor band of the first scale factor bands with noise generated using spectral lines of a different channel of the current frame of the multichannel audio signal, with adjusting a level of the noise using an actual scale factor of the predetermined scale factor band; and signal the actual scale factor for the predetermined scale factor band instead of the preliminary scale factor. fill the spectral lines within a predetermined scale factor band of the first scale factor bands with noise generated using spectral lines of a different channel of the current frame of the multichannel audio signal, with adjusting a level of the noise using an actual scale factor of the predetermined scale factor band; and signal the actual scale factor for the predetermined scale factor band instead of the preliminary scale factor.
A vehicle cabin lighting system comprising: a lighting device that is configured to be provided inside a vehicle cabin and that is configured to move a position of light; a control section that is configured to determine whether or not an occupant sitting on a vehicle seat has an interest in interacting with another occupant inside the vehicle cabin based on operation of an operation section (S3, S4) by the occupant or based on a state of the occupant sitting on the vehicle seat , and to control the lighting device so as to move the position of the light in order to direct a gaze direction of the occupant toward a vehicle width direction outer side in a case in which no interest in interacting has been determined; the lighting device includes an illumination unit configured to be disposed along a vehicle width direction in a back face of a seatback of a front seat ; and the control section is configured to illuminate the illumination unit sequentially from a vehicle width direction inner side toward the vehicle width direction outer side in a case in which the occupant has been determined not to have an interest in interacting with the other occupant inside the vehicle cabin. a lighting device that is configured to be provided inside a vehicle cabin and that is configured to move a position of light; a control section that is configured to determine whether or not an occupant sitting on a vehicle seat has an interest in interacting with another occupant inside the vehicle cabin based on operation of an operation section (S3, S4) by the occupant or based on a state of the occupant sitting on the vehicle seat , and to control the lighting device so as to move the position of the light in order to direct a gaze direction of the occupant toward a vehicle width direction outer side in a case in which no interest in interacting has been determined; the lighting device includes an illumination unit configured to be disposed along a vehicle width direction in a back face of a seatback of a front seat ; and the control section is configured to illuminate the illumination unit sequentially from a vehicle width direction inner side toward the vehicle width direction outer side in a case in which the occupant has been determined not to have an interest in interacting with the other occupant inside the vehicle cabin.
A vehicle control device for controlling a transmission ratio of a continuously variable transmission and a throttle opening degree, comprising: a basic target engine rotation speed calculation unit configured to calculate a basic target engine rotation speed, based on information concerning a vehicle speed; a final target engine rotation speed calculation unit configured to calculate a final target engine rotation speed, based on the basic target engine rotation speed and a target value concerning a driving force of a vehicle, and a target transmission ratio calculation unit configured to calculate a target transmission ratio, based on the final target engine rotation speed, characterized in that said control device further comprises a target engine torque calculation unit configured to calculate a target engine torque, based on an accelerator operation amount and the basic target engine rotation speed; and a target throttle opening degree calculation unit configured to calculate a target throttle opening degree, based on the target engine torque and the final target engine rotation speed. a basic target engine rotation speed calculation unit configured to calculate a basic target engine rotation speed, based on information concerning a vehicle speed; a final target engine rotation speed calculation unit configured to calculate a final target engine rotation speed, based on the basic target engine rotation speed and a target value concerning a driving force of a vehicle, and a target transmission ratio calculation unit configured to calculate a target transmission ratio, based on the final target engine rotation speed, characterized in that said control device further comprises a target engine torque calculation unit configured to calculate a target engine torque, based on an accelerator operation amount and the basic target engine rotation speed; and a target throttle opening degree calculation unit configured to calculate a target throttle opening degree, based on the target engine torque and the final target engine rotation speed.
A linear variable differential transducer comprising: a tubular magnetic core formed from a sheet; and a primary coil and at least one secondary coil , each coil positioned around a portion of a length of the magnetic core ; wherein the tubular magnetic core is formed from a sheet comprising a first edge and a second edge, wherein the sheet has been rolled or bent around a longitudinal axis of the tubular magnetic core such that the first edge is aligned with the second edge, and the first and second edges of the sheet are joined to one another to form a continuous tubular . a tubular magnetic core formed from a sheet; and a primary coil and at least one secondary coil , each coil positioned around a portion of a length of the magnetic core ; wherein the tubular magnetic core is formed from a sheet comprising a first edge and a second edge, wherein the sheet has been rolled or bent around a longitudinal axis of the tubular magnetic core such that the first edge is aligned with the second edge, and the first and second edges of the sheet are joined to one another to form a continuous tubular .
Wind turbine comprising a tower bearing a nacelle and a rotor with a plurality of rotor blades and an active noise reduction device , wherein the active noise reduction device comprises: at least one actuator , at least one unsteady pressure sensor adapted to produce an output signal corresponding to a turbulent flow condition during operation of the rotor blade , at least one noise sensor adapted to produce an output signal corresponding to a noise generated by the rotor blade at the location of the noise sensor , and a control unit , wherein the unsteady pressure sensor and the actuator are arranged on at least one of the rotor blades and the noise sensor is arranged at the nacelle and/or at the tower , wherein the control unit is adapted to control the actuator in dependence of the output signals of the unsteady pressure sensor and the noise sensor to emit an anti-noise signal at least partly reducing the noise generated by the rotor blade ; and characterized in that the control unit is adapted to apply at least one filter function to the output signal of the unsteady pressure sensor for determining an input signal for the actuator to emit the anti-noise signal; and comprises or is connected to a rotor orientation sensor , a tower bearing a nacelle and a rotor with a plurality of rotor blades and an active noise reduction device , wherein the active noise reduction device comprises: at least one actuator , at least one unsteady pressure sensor adapted to produce an output signal corresponding to a turbulent flow condition during operation of the rotor blade , at least one noise sensor adapted to produce an output signal corresponding to a noise generated by the rotor blade at the location of the noise sensor , and a control unit , wherein the unsteady pressure sensor and the actuator are arranged on at least one of the rotor blades and the noise sensor is arranged at the nacelle and/or at the tower , at least one actuator , at least one unsteady pressure sensor adapted to produce an output signal corresponding to a turbulent flow condition during operation of the rotor blade , at least one noise sensor adapted to produce an output signal corresponding to a noise generated by the rotor blade at the location of the noise sensor , and a control unit , wherein the unsteady pressure sensor and the actuator are arranged on at least one of the rotor blades and the noise sensor is arranged at the nacelle and/or at the tower , wherein the control unit is adapted to control the actuator in dependence of the output signals of the unsteady pressure sensor and the noise sensor to emit an anti-noise signal at least partly reducing the noise generated by the rotor blade ; and characterized in that the control unit is adapted to apply at least one filter function to the output signal of the unsteady pressure sensor for determining an input signal for the actuator to emit the anti-noise signal; and comprises or is connected to a rotor orientation sensor ,
Household dishwasher having a dishwasher cavity , which encompasses a dishwasher interior of the household dishwasher , and a dispensing facility for dispensing a cleaning agent into the dishwasher interior , wherein the dispensing facility has a receiving part having a receiving area for receiving the cleaning agent , a cover for sealing the receiving area and a sealing arrangement that is arranged at least in sections between the receiving part and the cover , characterised in that the sealing arrangement has a first sealing lip and a second sealing lip that is different from the first sealing lip , wherein the sealing arrangement runs completely around the receiving area , wherein the first sealing lip runs only partially around the receiving area , and wherein the second sealing lip also runs only partially around the receiving area .
A container comprising a base and a lid defining a first compartment therebetween, wherein at least the lid or the base includes a reconfigurable wall to enable a user to form or enlarge a second compartment on the other side of said wall to the first compartment, characterised in that , the reconfigurable wall is formed of contiguous polygons configured to move relative to a boundary of the reconfigurable wall and relative to each other under applied pressure so as to be arrangeable in a first, convex configuration (Figure 5A) and arrangeable in a second, concave configuration (Figure 5B), the second compartment being formed or enlarged when the contiguous polygons are arranged in the second, concave configuration.