mhurhangee/patent-ind-claim-en huggingface dataset:
A method for decoding video data comprising: receiving (S110) coded video data including multi-view video data and depth data corresponding to the video data; acquiring (S120) motion data for inter-view prediction of a coding unit of the multi-view video data from the depth data which is derived using a depth map picture to which the coding unit refers; performing inter-view prediction based on the motion data; and restoring video data according to the multi-view video data including the coding unit and the depth data based on the inter-view prediction, wherein the motion data for inter-view prediction of the coding unit of the multi-view video data is calculated using information derived from a depth map picture to which the coding unit refers, the information comprising depth values of the left uppermost position, right uppermost position, left lowermost position, and right lowermost position of a corresponding unit of the depth map picture to which the coding unit refers, wherein the motion data is calculated using a maximum disparity derived from the depth values in the depth map picture to which the coding unit refers; and wherein plural blocks included in the coding unit use in common the maximum disparity for motion data calculation of inter-view prediction. receiving (S110) coded video data including multi-view video data and depth data corresponding to the video data; acquiring (S120) motion data for inter-view prediction of a coding unit of the multi-view video data from the depth data which is derived using a depth map picture to which the coding unit refers; performing inter-view prediction based on the motion data; and restoring video data according to the multi-view video data including the coding unit and the depth data based on the inter-view prediction, wherein the motion data for inter-view prediction of the coding unit of the multi-view video data is calculated using information derived from a depth map picture to which the coding unit refers, the information comprising depth values of the left uppermost position, right uppermost position, left lowermost position, and right lowermost position of a corresponding unit of the depth map picture to which the coding unit refers, wherein the motion data is calculated using a maximum disparity derived from the depth values in the depth map picture to which the coding unit refers; and wherein plural blocks included in the coding unit use in common the maximum disparity for motion data calculation of inter-view prediction.
An atmospheric suit configured for a space environment, characterized in that the suit comprises a system to create vibration-based directional synthetic ambient sound in or on the suit, the system comprising: a vibration detector configured to detect a location of vibration and identify a frequency of the vibration; a controller configured to generate audio corresponding to the frequency of vibration detected by the vibration detector; and one or more speakers configured to provide the audio as directional sound. a vibration detector configured to detect a location of vibration and identify a frequency of the vibration; a controller configured to generate audio corresponding to the frequency of vibration detected by the vibration detector; and one or more speakers configured to provide the audio as directional sound.
A conveyor belt module , comprising: a body extending in length from a forward end to a rearward end and in width from a first side edge to a second side edge and in thickness from a top side to an opposite bottom side; a plurality of hinge elements extending from the forward end and the rearward end; and a transverse diverting belt arranged to move transversely relative to the body, wherein the transverse diverting belt extends from the first side edge to the second side edge above the top side in an upper span and extends from the first side edge to the second side edge below the bottom side in a lower span; characterized in that the transverse diverting belt includes a plurality of first rollers rotatable about an axis, wherein the first rollers extend above the top of the transverse diverting belt and wherein the first rollers contact the top side of the body such that when the transverse diverting belt moves over the body, the first rollers are induced to rotate causing a package riding atop the first rollers to move towards the second side edge at a discharge speed that is double the speed of the transverse diverting belt . a body extending in length from a forward end to a rearward end and in width from a first side edge to a second side edge and in thickness from a top side to an opposite bottom side; a plurality of hinge elements extending from the forward end and the rearward end; and a transverse diverting belt arranged to move transversely relative to the body, wherein the transverse diverting belt extends from the first side edge to the second side edge above the top side in an upper span and extends from the first side edge to the second side edge below the bottom side in a lower span; characterized in that the transverse diverting belt includes a plurality of first rollers rotatable about an axis, wherein the first rollers extend above the top of the transverse diverting belt and wherein the first rollers contact the top side of the body such that when the transverse diverting belt moves over the body, the first rollers are induced to rotate causing a package riding atop the first rollers to move towards the second side edge at a discharge speed that is double the speed of the transverse diverting belt .
A blow molding method for producing plastic hollowed bodies, i.e. for producing a hose, the method comprises the following stages; - Stage of production of connection elements , - Stage of heating the connection elements , - Stage of placing the connection elements and closing the mold , - Hose pouring stage , - Blowing stage , - Stage of holding in the mold to cool, - Stage of taking out the blow molded hose from the mold , wherein the stage of production of connection elements comprises the production of at least one connection element to be placed in the mold , wherein the stage of heating the connection elements comprises heating at least one connection elements prior to placing in the mold , wherein the hose pouring stage comprises pouring the molten hose from the feeding tube , characterized in that in order to enable the molten hose to flow by moving not only in a vertical manner along the Y axis but also forward and backward along the X axis and rightward and leftward at the Z axis; the stage of placing the connection elements and closing the mold comprises placing at least one connection element in the mold such that it corresponds to the curve of the hose , and closing the mold . a hose, the method comprises the following stages; - Stage of production of connection elements , - Stage of heating the connection elements , - Stage of placing the connection elements and closing the mold , - Hose pouring stage , - Blowing stage , - Stage of holding in the mold to cool, - Stage of taking out the blow molded hose from the mold , - Stage of production of connection elements , - Stage of heating the connection elements , - Stage of placing the connection elements and closing the mold , - Hose pouring stage , - Blowing stage , - Stage of holding in the mold to cool, - Stage of taking out the blow molded hose from the mold , wherein the stage of production of connection elements comprises the production of at least one connection element to be placed in the mold , wherein the stage of heating the connection elements comprises heating at least one connection elements prior to placing in the mold , wherein the hose pouring stage comprises pouring the molten hose from the feeding tube , characterized in that in order to enable the molten hose to flow by moving not only in a vertical manner along the Y axis but also forward and backward along the X axis and rightward and leftward at the Z axis; the stage of placing the connection elements and closing the mold comprises placing at least one connection element in the mold such that it corresponds to the curve of the hose , and closing the mold .
A substrate processing management system for a substrate processing line including a component mounting machine configured to mount electronic components on a substrate and a substrate inspection machine configured to inspect the mounting state of electronic components mounted on a substrate to determine whether each of the substrates or each of the electronic components is defective, the substrate processing management system comprising: a defect tallying section configured to calculate a defect rate representing a rate of occurrence of substrates or electronic components determined to be defective with the substrate inspection machine , or obtain a number of defective products having substrates or electronic components determined to be defective; an attribute change recognition section configured to recognize when an attribute, among the attributes of the electronic component having a possibility of affecting the inspection, has changed in the component mounting machine ; a fault point estimation section configured to estimate, when the defect rate or the number of defective products exceeds a predetermined value, a fault point depending on whether an attribute has changed; and a countermeasure calling section configured to call for a defect countermeasure to the estimated fault point, characterized in that the fault point estimation section is configured to estimate that the substrate inspection machine is the fault point when the attribute has changed, and to estimate that the component mounting machine is the fault point when the attribute has not changed. a defect tallying section configured to calculate a defect rate representing a rate of occurrence of substrates or electronic components determined to be defective with the substrate inspection machine , or obtain a number of defective products having substrates or electronic components determined to be defective; an attribute change recognition section configured to recognize when an attribute, among the attributes of the electronic component having a possibility of affecting the inspection, has changed in the component mounting machine ; a fault point estimation section configured to estimate, when the defect rate or the number of defective products exceeds a predetermined value, a fault point depending on whether an attribute has changed; and a countermeasure calling section configured to call for a defect countermeasure to the estimated fault point, characterized in that the fault point estimation section is configured to estimate that the substrate inspection machine is the fault point when the attribute has changed, and to estimate that the component mounting machine is the fault point when the attribute has not changed.
Stowage device for a habitation vehicle , with at least one housing , with at least one pull-out element arranged, in a first pull-out position, at least partially within the housing and, in a second pull-out position, at least partially outside the housing , with at least one cover which at least partially covers the pull-out element in a first cover position, and at least partially releases the pull-out element in a second cover position, and with a bearing unit comprising at least one first bearing , which is configured to support the pull-out element movably along at least one first direction from the first pull-out position into the second pull-out position, and comprising at least one second bearing , which is configured to support the cover section-wise movably along at least one second direction from the first cover position into the second cover position, the first direction and the second direction being at least substantially opposed to each other, characterised in that the second bearing is configured, in a movement from the first cover position into the second cover position and in a movement from the second cover position into the first cover position, to move the cover at least section-wise transversally to the first direction and/or to the second direction . with at least one housing , with at least one pull-out element arranged, in a first pull-out position, at least partially within the housing and, in a second pull-out position, at least partially outside the housing , with at least one cover which at least partially covers the pull-out element in a first cover position, and at least partially releases the pull-out element in a second cover position, and with a bearing unit comprising at least one first bearing , which is configured to support the pull-out element movably along at least one first direction from the first pull-out position into the second pull-out position, and comprising at least one second bearing , which is configured to support the cover section-wise movably along at least one second direction from the first cover position into the second cover position, the first direction and the second direction being at least substantially opposed to each other, characterised in that the second bearing is configured, in a movement from the first cover position into the second cover position and in a movement from the second cover position into the first cover position, to move the cover at least section-wise transversally to the first direction and/or to the second direction .
A sheath cap, comprising a housing collar and a cylinder which is coaxially fixed on an inner surface of one end of the housing collar , the cylinder being internally provided with instrument channel straight holes and a water spray channel straight hole which are parallel to an axial direction of the cylinder, wherein the sheath cap is provided with a water spray channel oblique hole which is in communication with the water spray channel straight hole and can spray water to the lateral front side of the sheath cap; characterised in that the water spray channel oblique hole comprises water spray channel oblique slots (4.2), each of which is provided on the surface of the cylinder and forms an angle with the axial direction of the cylinder , a water spray connection channel (4.3) is provided in the cylinder and is connected between the rear end of the water spray channel oblique slot (4.2) and the water spray channel straight hole , the water spray channel oblique slots (4.2) are provided on a surface of a circle of the cylinder in the circumferential direction at intervals; the cylinder is coaxially fixed with a cylinder collar which makes a water flow be sprayed to the lateral front side of the sheath cap along the orientation of the water spray channel oblique slot (4.2), and the water outlet end of the water spray channel oblique slot (4.2) is located in front of the cylinder collar ; and the housing collar and the cylinder collar are coaxially and fixedly connected as whole, and the outer diameter of the cylinder collar is the same as the outer diameter of the housing collar . characterised in that the water spray channel oblique hole comprises water spray channel oblique slots (4.2), each of which is provided on the surface of the cylinder and forms an angle with the axial direction of the cylinder , a water spray connection channel (4.3) is provided in the cylinder and is connected between the rear end of the water spray channel oblique slot (4.2) and the water spray channel straight hole , the water spray channel oblique slots (4.2) are provided on a surface of a circle of the cylinder in the circumferential direction at intervals; the cylinder is coaxially fixed with a cylinder collar which makes a water flow be sprayed to the lateral front side of the sheath cap along the orientation of the water spray channel oblique slot (4.2), and the water outlet end of the water spray channel oblique slot (4.2) is located in front of the cylinder collar ; and the housing collar and the cylinder collar are coaxially and fixedly connected as whole, and the outer diameter of the cylinder collar is the same as the outer diameter of the housing collar .
A surgical instrument for occluding tubular organic body parts, the surgical instrument comprising: an instrument shaft extending about a first axis including: a first branch ; a second branch ; and a joint system between a proximal end and a distal end of the surgical instrument , wherein the instrument shaft is pivotable about the joint system about a second axis that is perpendicular to the first axis ; a gripping device located at the distal end of the surgical instrument for selectively occluding tubular organic body parts, the gripping device comprising: a first gripping element arranged on the first branch ; and a second gripping element arranged on the second branch ; an actuating device located at the proximal end of the surgical instrument , the actuating device in mechanical connection with the gripping device via at least the instrument shaft , the actuating device configured to open and close the gripping device ; a locking system extending along at least a portion of the instrument shaft ; wherein when the locking system is in a first position, the locking system prevents the instrument shaft from being pivotable around the j oint system ; and wherein when the locking system is in a second position, the instrument shaft is pivotable around the joint system , characterized in that when the locking system is in the second position, the actuating device is unable to open or close the gripping device . an instrument shaft extending about a first axis including: a first branch ; a second branch ; and a joint system between a proximal end and a distal end of the surgical instrument , wherein the instrument shaft is pivotable about the joint system about a second axis that is perpendicular to the first axis ; a first branch ; a second branch ; and a joint system between a proximal end and a distal end of the surgical instrument , wherein the instrument shaft is pivotable about the joint system about a second axis that is perpendicular to the first axis ; a gripping device located at the distal end of the surgical instrument for selectively occluding tubular organic body parts, the gripping device comprising: a first gripping element arranged on the first branch ; and a second gripping element arranged on the second branch ; a first gripping element arranged on the first branch ; and a second gripping element arranged on the second branch ; an actuating device located at the proximal end of the surgical instrument , the actuating device in mechanical connection with the gripping device via at least the instrument shaft , the actuating device configured to open and close the gripping device ; a locking system extending along at least a portion of the instrument shaft ; wherein when the locking system is in a first position, the locking system prevents the instrument shaft from being pivotable around the j oint system ; and wherein when the locking system is in a second position, the instrument shaft is pivotable around the joint system , characterized in that when the locking system is in the second position, the actuating device is unable to open or close the gripping device .
A voltage/reactive power control apparatus configured to be applied to a power system having a monitoring point set in a local system divided as appropriate from the power system and the local system having a voltage/reactive power control device adjustable in accordance with a control target value of voltage and reactive power at the monitoring point , wherein the voltage/reactive power control apparatus includes a central control unit configured to set the control target value of the voltage and reactive power at the monitoring point in the local system based on optimal power flow calculation using total system data on the power system, characterized in that the central unit is further configured to generate a correction function to correct the control target value in accordance with a change in power flow state of the power system relating to the monitoring point by using past history information on the states of the power system, wherein the correction function represents a relationship between the control target value at the monitoring point and the controlled variable value provided by the voltage/reactive power control device wherein, in order to generate the correction function, the central control unit is further configured to acquire past history power flow data (D2) from a past history power flow database (DB2) for the state of the power system (S203), and to calculate voltage deviation amounts with respect to state changes at a plurality of time cross sections, and is further configured to output the control target value and at least one or more correction functions for the voltage/reactive power control device that is controlled by the control target value given by the voltage/reactive power control apparatus and the correction function.
Lighting device (DE) for a vehicle (V) comprising analysis means (MA) analysing a zone (ZA) situated in front of it (V), said device (DA) comprising a first source (S1) generating first photons and a reflector (RP) reflecting said generated first photons towards said zone (ZA) so that they form a first light beam (F1) ensuring a photometric lighting function characterized in that it further comprises i) an assembly installed in front of said reflector (RP), positionable in different angular positions and comprising a second source (S2) generating second photons and a lens (LF) interposed between said second source (S2) and said zone (ZA) and forming, with said generated second photons, a second narrow light beam (F2) pointing at a sub-zone of said zone (ZA) as a function of an angular position of said assembly and ii) control means (MC) determining the said angular position of the assembly in the event of detection of an obstacle (OB) in a sub-zone of known position with respect to a reference frame of the said vehicle (V), the said control means (MC) furthermore determining an angular position of the assembly in which the said lens (LF) is distant from a place of passage of the said first light beam (F1) in order to stow it away when the said second source (S2) does not generate second photons.
An elevator with an elevator drive that includes a drive wheel , a drive carrier for holding the elevator drive in a predetermined position, and at least one hoisting cable, as well as a cabin guided along guide rails, characterized in that the drive carrier has a one-piece full-ring shell whose inner circumferential surface precisely accommodates the housing of the elevator drive at least in the area of its contact surface with the full-ring shell ,, preferably designed as a flat, circumferentially at least substantially closed smooth tube , thereby holding the elevator drive in its intended working position even under the loads occurring during operation.
A Shigella strain which does not express a functional HtrB enzyme, wherein the Shigella strain expresses no more than 4 of TolA, TolB, TolQ, TolR and Pal proteins.
A positive electrode active material precursor comprising: a transition metal hydroxide particle represented by Formula 1 below; and cobalt oxide particles and manganese oxide particles attached to a surface of the transition metal hydroxide particle: [Formula 1] [Ni a Co b M 1 c M 2 d ] (OH) 2 in Formula 1, 0.8≤a<1, 0<b<0.2, 0≤c≤0.1, and 0≤d≤0.1, M 1 is one or more selected from the group consisting of Mn and Al, and is one or more selected from the group consisting of Ba, Ca, Zr, Ti, Mg, Ta, Nb, and Mo. a transition metal hydroxide particle represented by Formula 1 below; and cobalt oxide particles and manganese oxide particles attached to a surface of the transition metal hydroxide particle: [Formula 1] [Ni a Co b M 1 c M 2 d ] (OH) 2 in Formula 1, 0.8≤a<1, 0<b<0.2, 0≤c≤0.1, and 0≤d≤0.1, M 1 is one or more selected from the group consisting of Mn and Al, and is one or more selected from the group consisting of Ba, Ca, Zr, Ti, Mg, Ta, Nb, and Mo.