mhurhangee/ep-ind-claims huggingface dataset:
A dispensing system, comprising: a substrate having a channel; and a base having an upper housing and a lower housing, wherein an aerosol container for discharging a flowable medium into the channel is provided with a dispensing valve having a valve stem and is completely accommodated within the base wherein exertion of a downward force component onto the upper housing causes same to move axially downward, thereby causing compression of the valve stem of the container and the resultant release of the contents of the container, wherein the channel comprises: an uninterrupted volume of at least 300 cm 3, and wherein the substrate comprises: an average wicking speed of at least 0.05 mm/s. a substrate having a channel; and a base having an upper housing and a lower housing, wherein an aerosol container for discharging a flowable medium into the channel is provided with a dispensing valve having a valve stem and is completely accommodated within the base wherein exertion of a downward force component onto the upper housing causes same to move axially downward, thereby causing compression of the valve stem of the container and the resultant release of the contents of the container, wherein the channel comprises: an uninterrupted volume of at least 300 cm 3, and an uninterrupted volume of at least 300 cm 3, and wherein the substrate comprises: an average wicking speed of at least 0.05 mm/s. an average wicking speed of at least 0.05 mm/s.
A vehicle seat (1, 100, 200, 500), comprising: a seatback frame including a pair of side members extending vertically along either side thereof and providing a structural framework of a seatback; a plate member positioned behind the seatback frame and including an extension extending in an outboard direction from the side member located on an outboard side of the seatback frame; a mounting member connected to the outboard side member; and an airbag module positioned on a front side of the extension and connected to the outboard side member via the mounting member; characterised in that a clearance is defined between the airbag module and the extension; and in that the mounting member includes a first mounting member (36, 101, 201, 501) directly connected to the outboard side member, and a second mounting member (37, 102, 202, 502) directly connected to the airbag module, and the second mounting member is connected to the first mounting member via a fastener (72, 119, 216), the plate member being provided with a through hole (74, 120, 220) passed along an axial line of the fastener. a seatback frame including a pair of side members extending vertically along either side thereof and providing a structural framework of a seatback; a plate member positioned behind the seatback frame and including an extension extending in an outboard direction from the side member located on an outboard side of the seatback frame; a mounting member connected to the outboard side member; and an airbag module positioned on a front side of the extension and connected to the outboard side member via the mounting member; characterised in that a clearance is defined between the airbag module and the extension; and in that the mounting member includes a first mounting member (36, 101, 201, 501) directly connected to the outboard side member, and a second mounting member (37, 102, 202, 502) directly connected to the airbag module, and the second mounting member is connected to the first mounting member via a fastener (72, 119, 216), the plate member being provided with a through hole (74, 120, 220) passed along an axial line of the fastener.
A scanner system comprising a 3D scanner for recording a digital 3D representation of an object, the scanner system comprising: - a projector unit (201, 301, 601) comprising a movable portion and configured for projecting a structured beam of probe light (202a, 202b) comprising a pattern onto the object placed in a scan volume, the object comprising a dental impression or a physical dental model; - an imaging unit (209, 309) arranged to acquire 2D images of the object when the object is illuminated by the structured probe light beam (202a, 202b); - an actuator unit (213, 320, 321, 322) arranged to control position of the structured probe light beam (202a, 202b) at the object by rotating the movable portion of the projector unit (201, 301, 601) around a pivoting axis (224, 324, 624), the actuator unit comprising a rotation motor comprising or arranged to drive a wheel (321, 621), where the surface of the wheel is without gearing teeth and is operatively coupled to the movable portion of the projector unit (201, 301, 601) and has a radial distance, from a rotation axis of the wheel (321, 621), that is configured to change with the rotation; and - a data processing unit configured to generate the digital 3D representation expressing at least 3D topography of the object based on the acquired 2D images. - a projector unit (201, 301, 601) comprising a movable portion and configured for projecting a structured beam of probe light (202a, 202b) comprising a pattern onto the object placed in a scan volume, the object comprising a dental impression or a physical dental model; - an imaging unit (209, 309) arranged to acquire 2D images of the object when the object is illuminated by the structured probe light beam (202a, 202b); - an actuator unit (213, 320, 321, 322) arranged to control position of the structured probe light beam (202a, 202b) at the object by rotating the movable portion of the projector unit (201, 301, 601) around a pivoting axis (224, 324, 624), the actuator unit comprising a rotation motor comprising or arranged to drive a wheel (321, 621), where the surface of the wheel is without gearing teeth and is operatively coupled to the movable portion of the projector unit (201, 301, 601) and has a radial distance, from a rotation axis of the wheel (321, 621), that is configured to change with the rotation; and - a data processing unit configured to generate the digital 3D representation expressing at least 3D topography of the object based on the acquired 2D images.
A method for managing multicast transmissions in a cellular network, the method comprising: a node of the cellular network sending data units to a group of base stations (200; 200-1, 200-2), each data unit being configured for conveying multicast data to be sent by the base stations (200; 200-1, 200-2) in a synchronized manner at a starting time indicated in the data unit; the node determining, for each of the data units, the starting time as the sum of the time of sending the data unit from the node and an offset value; characterized in the node obtaining feedback information from the base stations (200; 200-1, 200-2) of the group, the feedback information indicating a deviation of the starting time indicated in one of the data units from an earliest possible time of sending the multicast data from the data unit by the base stations (200; 200-1, 200-2) of the group; and depending on the feedback information, the node adapting the offset value. a node of the cellular network sending data units to a group of base stations (200; 200-1, 200-2), each data unit being configured for conveying multicast data to be sent by the base stations (200; 200-1, 200-2) in a synchronized manner at a starting time indicated in the data unit; the node determining, for each of the data units, the starting time as the sum of the time of sending the data unit from the node and an offset value; characterized in the node obtaining feedback information from the base stations (200; 200-1, 200-2) of the group, the feedback information indicating a deviation of the starting time indicated in one of the data units from an earliest possible time of sending the multicast data from the data unit by the base stations (200; 200-1, 200-2) of the group; and depending on the feedback information, the node adapting the offset value.
A hub which can be used in a member for controlling the direction of a vehicle, in particular a nautical vehicle, or boat, which has a respective rotatable body, or steering wheel,, which can be manually operated by the skipper of the vehicle to control the direction of the vehicle and which is operatively connectable to means defining, or determining, the direction of travel of the vehicle; said hub (12, 112) supporting the rotatable body which can be operated manually, and comprising means fixed to the structure of the vehicle and which rotatably support respective means for supporting, or coupling, the rotatable body which can be operated manually, and housing, in a freely rotatable fashion, corresponding means for transmitting the rotating motion of the rotary body towards the means which define, or determine, the direction of travel of the vehicle; said means fixed to the structure of the vehicle supporting corresponding means which can be used, in particular which can be operated and/or viewed, by the skipper, which remain fixed during the rotation of the rotatable body, and the fixed means of the hub (12, 112) comprise base means (141, 142) for fixing to the structure of the vehicle; said means for transmitting the motion are in the form of a corresponding longitudinal body, which is supported in a freely rotatable manner by the fixed means and which is connectable coaxially to a corresponding spindle defining part of the chain for driving the means defining, or determining, the direction of travel of the vehicle; wherein said hub is in the form of a squat body (12, 112) having a respective longitudinal axis of extension relative to which the squat body extends, in particular circumferentially, in which the fixed means comprise means for supporting the means which can be used by the skipper which are in the form of a respective supporting body; which is coupled longitudinally to the base means (141, 142); the means for supporting the means which can be used by the skipper has a corresponding longitudinal cavity for housing the transmission means; said means for supporting the means which can be used by the skipper, engaging and supporting, at the respective longitudinal end which faces, in use, towards the skipper, and that is opposite the one engaging the fixed base (141, 142), a fixed end body characterised in that said rotatable body which can be operated manually comprise means, or body, for fixing the rotatable body which can be operated manually which are in the form of a flanged body that is located at the longitudinal end, which faces in use towards the skipper, and defines a corresponding outer surface, or edge, of the upper face of the supporting means, or hub,.
A micro light-emitting display apparatus comprising: a first semiconductor layer; an isolation structure comprising an ion implantation area, provided on the first semiconductor layer and configured to define a plurality of sub-pixels (SP1, SP2) each configured to emit light; a first light-emitting unit including a first active layer provided on the upper surface of the first semiconductor layer in a first sub-pixel among the plurality of sub-pixels, and a second semiconductor layer provided on the first active layer; and a second light-emitting unit including a rod semiconductor layer formed by regrowth from the first semiconductor layer in a regrowth area etched from the isolation structure and provided in a second sub-pixel among the plurality of sub-pixels, a second active layer provided on the rod semiconductor layer, and a third semiconductor layer provided on the second active layer, wherein the first active layer is configured to emit blue light and the second active layer is configured to emit green light. a first semiconductor layer; an isolation structure comprising an ion implantation area, provided on the first semiconductor layer and configured to define a plurality of sub-pixels (SP1, SP2) each configured to emit light; a first light-emitting unit including a first active layer provided on the upper surface of the first semiconductor layer in a first sub-pixel among the plurality of sub-pixels, and a second semiconductor layer provided on the first active layer; and a second light-emitting unit including a rod semiconductor layer formed by regrowth from the first semiconductor layer in a regrowth area etched from the isolation structure and provided in a second sub-pixel among the plurality of sub-pixels, a second active layer provided on the rod semiconductor layer, and a third semiconductor layer provided on the second active layer, wherein the first active layer is configured to emit blue light and the second active layer is configured to emit green light.
A process for bending a glass panel, comprising: - a first step of bending the glass panel by making it sag under gravity on a first support (SP1, SI, SP), giving it a first central sag; then - a second step, which continues the bending of the glass panel by sagging under gravity, on a second support(SP2, SP), giving it a second central sag more pronounced than the first one and until the entire periphery of the glass panel comes into contact with said second support (SP2, SP), the glass panel being at a temperature high enough for its central part to be able to continue to sag after contact of its entire periphery; then - a third step, continuing the bending of the glass panel by sagging under gravity, giving it a third central sag more pronounced than the second, the periphery still being in contact with said second support(SP2, SP); and then - a fourth step in which the sagging of the glass panel is stopped by cooling it, giving it the desired final shape. - a first step of bending the glass panel by making it sag under gravity on a first support (SP1, SI, SP), giving it a first central sag; then - a second step, which continues the bending of the glass panel by sagging under gravity, on a second support(SP2, SP), giving it a second central sag more pronounced than the first one and until the entire periphery of the glass panel comes into contact with said second support (SP2, SP), the glass panel being at a temperature high enough for its central part to be able to continue to sag after contact of its entire periphery; then - a third step, continuing the bending of the glass panel by sagging under gravity, giving it a third central sag more pronounced than the second, the periphery still being in contact with said second support(SP2, SP); and then - a fourth step in which the sagging of the glass panel is stopped by cooling it, giving it the desired final shape.
Method for pressing tampon blanks into tampon pre-forms, comprising the steps of: (a) subsequently providing at least a first tampon blank and a second tampon blank at a source feed; (b) transferring said first tampon blank from said source feed to a first tampon press; pressing said first tampon blank into a first tampon pre-form; transferring said second tampon blank from said source feed to a second tampon press; (d) pressing said second tampon blank into a second tampon pre-form; (e) releasing said first tampon pre-form from said first press and transferring said first tampon pre-form from said first press to a destination feed; (f) releasing said second pre-form from said second press and transferring said second tampon pre-form from said second press to said destination feed characterized in that steps and are performed at least partially simultaneously and in that step (d) is performed at least partially simultaneously as step (e), thereby asynchronously pressing the first tampon blank and the second tampon blank. (a) subsequently providing at least a first tampon blank and a second tampon blank at a source feed; (b) transferring said first tampon blank from said source feed to a first tampon press; pressing said first tampon blank into a first tampon pre-form; transferring said second tampon blank from said source feed to a second tampon press; (d) pressing said second tampon blank into a second tampon pre-form; (e) releasing said first tampon pre-form from said first press and transferring said first tampon pre-form from said first press to a destination feed; (f) releasing said second pre-form from said second press and transferring said second tampon pre-form from said second press to said destination feed
Laundry care appliance with a washing tub and a deodorising module for dispensing deodorising substance to the washing tub, wherein the deodorising module is connected to the washing tub and comprises a radial fan for ventilating the washing tub, wherein the radial fan is able to be driven in a first rotation direction and in a second rotation direction, characterised in that the deodorising module is configured to dispense deodorising substance to the washing tub in a first time period, wherein the radial fan is able to be driven in the first rotation direction in the first time period, in order to distribute the deodorising substance in the washing tub, and the radial fan is able to be driven in the second rotation direction in a second time period following the first time period, in order to remove the deodorising substance from the washing tub in the second time period, wherein the second rotation direction is the preferred rotation direction of the radial fan, so that the radial fan generates a more intensive air flow in the second rotation direction than in the first rotation direction, so that, when the radial fan is driven in the first rotation direction, a smaller air flow is generated in the washing tub, which is sufficient to distribute the deodorising substance in the washing tub, and so that, when the radial fan is driven in the second rotation direction, an intensive air flow is generated in the washing tub, which is sufficient to remove the deodorising substance from the washing tub again.
A system for extraction of saccharides from lignocellulosic material, comprising: a container configured for containing lignocellulosic material; a source of fluid configured for adding a fluid to the lignocellulosic material; a dewatering device connected to the container and configured for dewatering a mixture of lignocellulosic material and the fluid; and an apparatus connected to the dewatering device and configured for performing a hydrolysis of a dewatered mixture of lignocellulosic material and the fluid, wherein at least parts of the apparatus that are configured for coming into contact with said dewatered mixture are made of a material that comprises iron in an amount of at least 50 % by weight and nickel in an amount of at least 1.5 % by weight, characterized in that the system further comprises means for measuring the moisture content of said dewatered mixture and means for comparing the measured moisture content with a predefined value and means (4, 8) for, if the measured moisture content is above said predefined value, preventing the dewatered mixture from entering the apparatus, wherein the fluid is an acidic water solution and the hydrolysis is an acid-catalysed hydrolysis. a container configured for containing lignocellulosic material; a source of fluid configured for adding a fluid to the lignocellulosic material; a dewatering device connected to the container and configured for dewatering a mixture of lignocellulosic material and the fluid; and an apparatus connected to the dewatering device and configured for performing a hydrolysis of a dewatered mixture of lignocellulosic material and the fluid, wherein at least parts of the apparatus that are configured for coming into contact with said dewatered mixture are made of a material that comprises iron in an amount of at least 50 % by weight and nickel in an amount of at least 1.5 % by weight,
Shading device for a rear window arrangement of a motor vehicle, with a shading structure which is arranged so as to be shiftable relative to the rear window arrangement between a compactly stored inoperative position and an extended shading position, and with a dimensionally stable extension profile (4, 4') which is arranged on an end region, at the front in the extension direction, of the shading structure, the extension profile (4, 4') being guided so as to be shiftable in parallel in vehicle-mounted, lateral guide arrangements (6, 8), the extension profile (4, 4') being assigned at least two different visible contours (5a, 5b; 5'a; 5'b) which can be brought into different functional positions by rotation about a longitudinal axis of the extension profile (4, 4'), wherein the extension profile is mounted on opposite end sides by means of a respective hinge joint so as to be pivotable about the longitudinal axis relative to lateral guide elements which are guided in the lateral guide arrangements (6, 8), characterized in that the hinge joint is a ball and socket joint.
A terminal comprising: a receiving section configured to receive, via higher layer signaling, first information indicating a gap offset in subframe units related to a measurement gap, MG, and second information indicating a shift time shorter than one subframe and related to the MG; and a control section configured to determine a timing of the MG based on the gap offset and the shift time, wherein the shift time can be a first shift time for a first frequency range, the shift time can be a second shift time for a second frequency range, the first shift time is different from the second shift time, and a frequency within the second frequency range is higher than a frequency within the first frequency range. a receiving section configured to receive, via higher layer signaling, first information indicating a gap offset in subframe units related to a measurement gap, MG, and second information indicating a shift time shorter than one subframe and related to the MG; and first information indicating a gap offset in subframe units related to a measurement gap, MG, and second information indicating a shift time shorter than one subframe and related to the MG; and a control section configured to determine a timing of the MG based on the gap offset and the shift time, wherein the shift time can be a first shift time for a first frequency range, the shift time can be a second shift time for a second frequency range, the first shift time is different from the second shift time, and a frequency within the second frequency range is higher than a frequency within the first frequency range.