mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting a boundary in an environment of an object (V), comprising the steps of: providing (S1) an occupancy grid (O) comprising a plurality of grid cells, each grid cell comprising a value for a probability of an occupancy in the environment of the object (V); detecting (S2) a starting transition point (S) in the occupancy grid (O) based on the values of the grid cells in the occupancy grid (O), wherein the starting transition point (S) is detected between a free and occupied grid cell in the occupancy grid; assigning (S3) a region of interest window (W) in the occupancy grid (O) surrounding the identified starting transition point (S), wherein a size of the region of interest window (W) is adapted using a distance between the object (V) and the center of the region of interest window (W); detecting (S4) further transition points (T-i) in the occupancy grid (O) based on the values of the grid cells in the region of interest window (W), wherein the further transition points (T-i) are detected at a transition between a free and an occupied grid cell in the region of interest window (W); and combining (S5) the detected starting transition point (S) and the further detected transition points (T-i) to a number of polygon chains for specifying a boundary (B) in the occupancy grid (O). providing (S1) an occupancy grid (O) comprising a plurality of grid cells, each grid cell comprising a value for a probability of an occupancy in the environment of the object (V); detecting (S2) a starting transition point (S) in the occupancy grid (O) based on the values of the grid cells in the occupancy grid (O), wherein the starting transition point (S) is detected between a free and occupied grid cell in the occupancy grid; assigning (S3) a region of interest window (W) in the occupancy grid (O) surrounding the identified starting transition point (S), wherein a size of the region of interest window (W) is adapted using a distance between the object (V) and the center of the region of interest window (W); detecting (S4) further transition points (T-i) in the occupancy grid (O) based on the values of the grid cells in the region of interest window (W), wherein the further transition points (T-i) are detected at a transition between a free and an occupied grid cell in the region of interest window (W); and combining (S5) the detected starting transition point (S) and the further detected transition points (T-i) to a number of polygon chains for specifying a boundary (B) in the occupancy grid (O).
A gas separation apparatus comprising: a separation membrane module (M) including a housing and at least one gas separation membrane element in the housing , the housing forms a space for sealing a source gas flowing in the separation membrane module (M) ; a casing for blocking external air; and a heat source unit for adjusting a temperature of a heat medium with which the casing is filled, wherein the casing holds greater than or equal to two separation membrane modules (M), characterised in that an volume efficiency of the separation membrane modules (M) integrated in the casing is greater than or equal to 5% and 50% or less, where the volume efficiency is calculated by the following formula: volume efficiency = (volume of separation membrane module M/ volume of casing 11) x 100. a separation membrane module (M) including a housing and at least one gas separation membrane element in the housing , the housing forms a space for sealing a source gas flowing in the separation membrane module (M) ; a casing for blocking external air; and a heat source unit for adjusting a temperature of a heat medium with which the casing is filled, wherein the casing holds greater than or equal to two separation membrane modules (M), characterised in that an volume efficiency of the separation membrane modules (M) integrated in the casing is greater than or equal to 5% and 50% or less, where the volume efficiency is calculated by the following formula: volume efficiency = (volume of separation membrane module M/ volume of casing 11) x 100.
A power module comprising: an insulating layer ; a lead frame disposed on an upper surface of the insulating layer ; a semiconductor chip disposed on an upper surface of the lead frame ; and the insulating layer consists of a relatively-hard insulating layer disposed so as to be contacted with the lead frame and of a relatively-soft insulating layer directly disposed on a surface opposite to the lead frame of the relatively-hard insulating layer , a mold resin formed so as to cover the semiconductor chip , at least a part of the lead frame , and at least a part of the insulating layer so that a part of respective side surfaces of the relatively-hard insulating layer and a bottom surface of the relatively-soft insulating layer are exposed from the mold resin , wherein the relatively-hard insulating layer being harder than A40 in durometer hardness and the relatively-soft insulating layer being softer than A40 in durometer hardness. an insulating layer ; a lead frame disposed on an upper surface of the insulating layer ; a semiconductor chip disposed on an upper surface of the lead frame ; and the insulating layer consists of a relatively-hard insulating layer disposed so as to be contacted with the lead frame and of a relatively-soft insulating layer directly disposed on a surface opposite to the lead frame of the relatively-hard insulating layer , a mold resin formed so as to cover the semiconductor chip , at least a part of the lead frame , and at least a part of the insulating layer so that a part of respective side surfaces of the relatively-hard insulating layer and a bottom surface of the relatively-soft insulating layer are exposed from the mold resin , wherein the relatively-hard insulating layer being harder than A40 in durometer hardness and the relatively-soft insulating layer being softer than A40 in durometer hardness.
A method for drawing a fiber with a textured surface, wherein said method comprises the following steps: -) forming of a preform from which the fiber is to be drawn with a textured surface; -) addition of an outer layer to the textured preform to preserve the shape of the texture of the preform surface during the drawing operation; -) drawing of a fiber from the preform, whereby the fiber keeps the formed texture of the preform surface and -) removing the additional outer layer to leave the original surface textured fiber exposed. -) forming of a preform from which the fiber is to be drawn with a textured surface; -) addition of an outer layer to the textured preform to preserve the shape of the texture of the preform surface during the drawing operation; -) drawing of a fiber from the preform, whereby the fiber keeps the formed texture of the preform surface and -) removing the additional outer layer to leave the original surface textured fiber exposed.
A welding method of welding a first composite material and a second composite material , each of which contains a carbon fiber base material and a thermoplastic resin, the method comprising: a sheet disposition process (S101) of disposing a first protection sheet such that the first protection sheet comes into contact with a first bonding surface of the first composite material , disposing a second protection sheet such that the second protection sheet comes into contact with a second bonding surface of the second composite material , and disposing an energization sheet such that the energization sheet comes into contact with the first protection sheet and the second protection sheet ; an electrode disposition process (S102) of disposing a pair of electrode portions such that the electrode portions come into contact with a pair of end portions of the energization sheet ; and a welding process (S104) of applying a voltage to the pair of electrode portions and welding the first composite material and the second composite material , wherein the energization sheet contains the carbon fiber base material oriented in a first predetermined direction connecting the pair of electrode portions , characterized in that each of the first protection sheet , the second protection sheet , and the energization sheet contains the carbon fiber base material oriented unidirectionally and the thermoplastic resin, and the first protection sheet and the second protection sheet contain the carbon fiber base material oriented in a second predetermined direction that substantially perpendicularly intersects the first predetermined direction. a sheet disposition process (S101) of disposing a first protection sheet such that the first protection sheet comes into contact with a first bonding surface of the first composite material , disposing a second protection sheet such that the second protection sheet comes into contact with a second bonding surface of the second composite material , and disposing an energization sheet such that the energization sheet comes into contact with the first protection sheet and the second protection sheet ; an electrode disposition process (S102) of disposing a pair of electrode portions such that the electrode portions come into contact with a pair of end portions of the energization sheet ; and a welding process (S104) of applying a voltage to the pair of electrode portions and welding the first composite material and the second composite material , wherein the energization sheet contains the carbon fiber base material oriented in a first predetermined direction connecting the pair of electrode portions , characterized in that each of the first protection sheet , the second protection sheet , and the energization sheet contains the carbon fiber base material oriented unidirectionally and the thermoplastic resin, and the first protection sheet and the second protection sheet contain the carbon fiber base material oriented in a second predetermined direction that substantially perpendicularly intersects the first predetermined direction.
A nonwoven web comprising multicomponent fibers, wherein the multicomponent fibers have at least a first component and a second component, the second component forming less than 20% of the outer surface of the multicomponent fibers, wherein the first and the second component differ from each other in color, the nonwoven web being pattern bonded, wherein the bonded areas have a first color and the unbonded areas have a second color which is different from the first color, the difference between the first color of the bonded areas and the second color of the unbonded areas being induced by the difference in color of the components of the multicomponent fibers, and wherein the delta E* between the bonded areas and the unbonded areas is at least 0.5 measured according to the test method set out herein.
A method of preparing a thermoplastic resin, the method comprising: A) a step of coagulating an emulsion-polymerized latex with an acid; B) a step of treating the coagulated aggregate (slurry) with a base, followed by dehydration; and C) a step of treating the dehydrated wet powder with an acid, followed by dehydration, wherein the emulsion-polymerized latex is a vinyl cyanide compound-conjugated diene-aromatic vinyl compound copolymer latex. A) a step of coagulating an emulsion-polymerized latex with an acid; B) a step of treating the coagulated aggregate (slurry) with a base, followed by dehydration; and C) a step of treating the dehydrated wet powder with an acid, followed by dehydration,
A method for tracking user data, the method comprises when a User Equipment, UE, is accessed to an eNodeB, eNB, of a serving cell, allocating , by the eNB of the serving cell, a UE Global Record Identifier, UERecordId, to the UE; when the UE is switched to an eNB of a target cell, transmitting , by the eNB of the serving cell, the UERecordId of the UE to the eNB of the target cell; characterized in that , transmitting , by the eNB of the serving cell, the UERecordId of the UE to the eNB of the target cell comprises: in an S1 handover scene or an X2 handover scene, carrying, by the eNB of the serving cell, the UERecordId of the UE through adding a Source To Target Transparent Container, STTTC, in a handover request message to transmit to the eNB of the target cell; wherein when each of the eNB of the serving cell and the eNB of the target cell reports data information of the UE to a back-end network manager or a third party application, the UERecordId of the UE is carried in the data information. when a User Equipment, UE, is accessed to an eNodeB, eNB, of a serving cell, allocating , by the eNB of the serving cell, a UE Global Record Identifier, UERecordId, to the UE; when the UE is switched to an eNB of a target cell, transmitting , by the eNB of the serving cell, the UERecordId of the UE to the eNB of the target cell; characterized in that , transmitting , by the eNB of the serving cell, the UERecordId of the UE to the eNB of the target cell comprises: in an S1 handover scene or an X2 handover scene, carrying, by the eNB of the serving cell, the UERecordId of the UE through adding a Source To Target Transparent Container, STTTC, in a handover request message to transmit to the eNB of the target cell; wherein when each of the eNB of the serving cell and the eNB of the target cell reports data information of the UE to a back-end network manager or a third party application, the UERecordId of the UE is carried in the data information.
A piston assembly for use in securing an inner member to an outer member which surrounds at least a portion of the inner member, the inner member comprising first and second axially spaced inner features (158, 170; 160) and the outer member comprising first and second axially spaced outer features (154, 168; 156) which are configured to engage the first and second inner features, respectively, to secure the inner member to the outer member, one of the first inner feature and the first outer feature being formed on a load nut which is threadedly connected to one of the inner member and the outer member such that rotation of the load nut relative to said one of the inner member and the outer member moves the load nut axially relative to said one of the inner member and the outer member, the piston assembly comprising: a helical cylinder which is positioned around said one of the inner member and the outer member to which the load nut is connected, the cylinder comprising first and second cylinder ends , the first cylinder end being connected to said one of the inner member and the outer member to which the load nut is connected; and a helical piston which is slidably received in the cylinder, the piston comprising a first piston end which is oriented toward the first cylinder end and a second piston end which is configured to extend through the second cylinder end and engage the load nut; wherein with the second inner feature engaged with the second outer feature, the piston assembly is operable to rotate the load nut to thereby move the first inner feature into engagement with the first outer feature to thereby secure the inner member to the outer member. a helical cylinder which is positioned around said one of the inner member and the outer member to which the load nut is connected, the cylinder comprising first and second cylinder ends , the first cylinder end being connected to said one of the inner member and the outer member to which the load nut is connected; and a helical piston which is slidably received in the cylinder, the piston comprising a first piston end which is oriented toward the first cylinder end and a second piston end which is configured to extend through the second cylinder end and engage the load nut; wherein with the second inner feature engaged with the second outer feature, the piston assembly is operable to rotate the load nut to thereby move the first inner feature into engagement with the first outer feature to thereby secure the inner member to the outer member.
A generator control unit comprising: a plurality of permanent magnet generator, PMG, inputs , each PMG input corresponding to a permanent magnet generator; a transformer including a multi-configuration input winding and at least one output winding ; each PMG input in the plurality of PMG inputs being connected to the multi-configuration input winding at a corresponding configuration, wherein the multi-configuration input winding includes a plurality of phase legs , with each phase leg comprising an identical number of isolated, floating, windings . a plurality of permanent magnet generator, PMG, inputs , each PMG input corresponding to a permanent magnet generator; a transformer including a multi-configuration input winding and at least one output winding ; each PMG input in the plurality of PMG inputs being connected to the multi-configuration input winding at a corresponding configuration, wherein the multi-configuration input winding includes a plurality of phase legs , with each phase leg comprising an identical number of isolated, floating, windings .
A method of controlling screen lock of a mobile terminal , the method comprising: storing identifier information, ID information, of a wireless device; storing a sensing condition of the mobile terminal ; storing a sensing condition of the wireless device; acquiring sensing information of the mobile terminal ; detecting a wireless device and ID information of the detected wireless device; receiving sensing information of the wireless device from the detected wireless device; determining if the detected ID information is identical to stored ID information in the mobile terminal ; determining whether to display an unlock requesting screen based on the determination as to whether the detected ID information is identical to the stored ID information and at least in part on whether acquired sensing information of the mobile terminal satisfies the stored sensing condition of the mobile terminal and at least in part on whether the received sensing information of the wireless device satisfies the stored sensing condition of the wireless device; displaying, if it is determined not to display the unlock requesting screen , a home screen on a display unit of the mobile terminal; and displaying, if it is determined to display the unlock requesting screen , the unlock requesting screen on the display unit, wherein the unlock requesting screen includes at least one user interface, UI, for receiving a user input to unlock the mobile terminal. storing identifier information, ID information, of a wireless device; storing a sensing condition of the mobile terminal ; storing a sensing condition of the wireless device; acquiring sensing information of the mobile terminal ; detecting a wireless device and ID information of the detected wireless device; receiving sensing information of the wireless device from the detected wireless device; determining if the detected ID information is identical to stored ID information in the mobile terminal ; determining whether to display an unlock requesting screen based on the determination as to whether the detected ID information is identical to the stored ID information and at least in part on whether acquired sensing information of the mobile terminal satisfies the stored sensing condition of the mobile terminal and at least in part on whether the received sensing information of the wireless device satisfies the stored sensing condition of the wireless device; displaying, if it is determined not to display the unlock requesting screen , a home screen on a display unit of the mobile terminal; and displaying, if it is determined to display the unlock requesting screen , the unlock requesting screen on the display unit, wherein the unlock requesting screen includes at least one user interface, UI, for receiving a user input to unlock the mobile terminal.
An armrest assembly for a passenger seat, the armrest assembly comprising: an armrest comprising a top side and a bottom side ; and an attendant step assembly connected to the bottom side of the armrest , wherein the attendant step assembly comprises a step that is movable between a stowed position and a deployed position relative to the bottom side of the armrest , characterized in that the attendant step assembly further comprises a first support leg and a second support leg , wherein the first support leg and the second support leg are each connected to the step and pivotably connected to the bottom side of the armrest such that the step is movable between the stowed position and the deployed position, and wherein the first support leg and the second support leg are each pivotable and slidable relative to the step . an armrest comprising a top side and a bottom side ; and an attendant step assembly connected to the bottom side of the armrest , wherein the attendant step assembly comprises a step that is movable between a stowed position and a deployed position relative to the bottom side of the armrest , characterized in that the attendant step assembly further comprises a first support leg and a second support leg , wherein the first support leg and the second support leg are each connected to the step and pivotably connected to the bottom side of the armrest such that the step is movable between the stowed position and the deployed position, and wherein the first support leg and the second support leg are each pivotable and slidable relative to the step .
An injection device comprising: a. a housing having a longitudinal axis; b. a dose selector capable of setting a dose to be ejected from the injection device; c. a dose indicator comprising a units wheel operatively connectable to the dose selector so that rotation of the dose selector about the longitudinal axis (L) also rotates the units wheel , and a tens wheel selectively engageable with the units wheel so that rotation of the units wheel also rotates the tens wheel ; characterized in that the injection device further comprises d. a biasing means for biasing the dose indicator axially-rearwardly in the housing , wherein an internal surface of the housing is provided with a tens housing feature comprising one or more formations selectively engageable with corresponding formations on the tens wheel to prevent rotation thereof, and wherein an internal surface of the housing is provided with a units housing feature wherein, when the units wheel is rotated into contact with the units housing feature , the units housing feature causes forward axial movement of the units wheel , against said biasing means , such that the units wheel engages and moves the tens wheel axially-forward and free of said tens housing feature so as to allow rotation thereof. a. a housing having a longitudinal axis; b. a dose selector capable of setting a dose to be ejected from the injection device; c. a dose indicator comprising a units wheel operatively connectable to the dose selector so that rotation of the dose selector about the longitudinal axis (L) also rotates the units wheel , and a tens wheel selectively engageable with the units wheel so that rotation of the units wheel also rotates the tens wheel ; characterized in that the injection device further comprises d. a biasing means for biasing the dose indicator axially-rearwardly in the housing , wherein an internal surface of the housing is provided with a tens housing feature comprising one or more formations selectively engageable with corresponding formations on the tens wheel to prevent rotation thereof, and wherein an internal surface of the housing is provided with a units housing feature wherein, when the units wheel is rotated into contact with the units housing feature , the units housing feature causes forward axial movement of the units wheel , against said biasing means , such that the units wheel engages and moves the tens wheel axially-forward and free of said tens housing feature so as to allow rotation thereof.