mhurhangee/patent-ind-claim-en huggingface dataset:
Mattress with a mattress core with at least two layers (H, W) of foam material lying on each and other having different specific spring strengths, such that one layer forms a softer layer (W) and the other layer forms a harder layer (H), wherein the softer and the harder layer (H, W) each have at least two sink-in zones (ZH, ZW) for accommodating the hip region and shoulder region of a person lying on the mattress, wherein the sink-in zones (ZH, ZW) have a reduced specific sink-in zone spring strength compared to the specific spring strength of the respective layer (H, W), the softer and the harder layer (H, W) each have at least one zone apart from the sink-in zones (ZH, ZW) which has the specific spring strength of the respective layer (H, W), the two layers each have an upper side (OH, OW) and lower side (UH, UW), wherein the sink-in zones (ZH, ZW) are incorporated in the two layers (H, W) in such a way that the upper sides has the reduced specific sink-in zone spring strength in the region of the sink-in zones, and the lower sides in the region of the sink-in zones has the an average specific sink-in zone spring strength, the strength of which lies between the reduced specific sink-in zone spring strength and the specific spring strength of the respective layer, characterized in that the reduced specific sink-in zone spring strengths in the region of in each case two sink-in zones lying on top of each other of the two layers lying on top of each other are designed such that in the harder layer (H), the smaller of the two reduced specific sink-in zone spring strengths is greater than the greater of the two reduced specific sink-in zone spring strengths in the softer layer (W). the upper sides has the reduced specific sink-in zone spring strength in the region of the sink-in zones, and the lower sides in the region of the sink-in zones has the an average specific sink-in zone spring strength, the strength of which lies between the reduced specific sink-in zone spring strength and the specific spring strength of the respective layer,
A method of decoding video data, the method comprising: decoding a first reference picture and a second reference picture, the second reference picture being different than the first reference picture, wherein the first reference picture and the second reference picture are either both to be displayed before a current picture or both to be displayed after the current picture; determining a first motion vector (MV 0 ) from a current block of the current picture to a first reference block of the first reference picture, wherein MV0 includes an x-component (MV0x) and a y-component (MV0y); determining a second motion vector (MV 1 ) from the current block to a second reference block of the second reference picture, wherein MV1 includes an x-component (MV1x) and a y-component (MVly); determining a first temporal distance (TD 0 ) from the current picture to the first reference picture; determining a second temporal distance (TD 1 ) from the current picture to the second reference picture; determining a threshold value (Th); determining that MV0 and MV1 are almost in proportion to TD0 and TD1 when (|MV0x ∗ TD1 - MV1x ∗ TD0| <= Th && |MV0y ∗ TD1 - MV1y ∗ TD0| <= Th); and decoding the current block according to bi-directional optical flow (BIO) using MV 0 , MV 1 , TD 0 , and TD 1 , when MV0 and MV1 are almost in proportion to TD0 and TD1. decoding a first reference picture and a second reference picture, the second reference picture being different than the first reference picture, wherein the first reference picture and the second reference picture are either both to be displayed before a current picture or both to be displayed after the current picture; determining a first motion vector (MV 0 ) from a current block of the current picture to a first reference block of the first reference picture, wherein MV0 includes an x-component (MV0x) and a y-component (MV0y); determining a second motion vector (MV 1 ) from the current block to a second reference block of the second reference picture, wherein MV1 includes an x-component (MV1x) and a y-component (MVly); determining a first temporal distance (TD 0 ) from the current picture to the first reference picture; determining a second temporal distance (TD 1 ) from the current picture to the second reference picture; determining a threshold value (Th); determining that MV0 and MV1 are almost in proportion to TD0 and TD1 when (|MV0x ∗ TD1 - MV1x ∗ TD0| <= Th && |MV0y ∗ TD1 - MV1y ∗ TD0| <= Th); and decoding the current block according to bi-directional optical flow (BIO) using MV 0 , MV 1 , TD 0 , and TD 1 , when MV0 and MV1 are almost in proportion to TD0 and TD1.
A reception apparatus comprising: a reception section adapted to receive a physical layer frame transported as a broadcast signal, wherein monitoring information is included in upper layer signalling that is signalling in a layer higher than a physical layer, and is used to monitor a specific emergency warning service, a demodulation section adapted to demodulate physical layer signalling acquired from the physical layer frame and monitor whether emergency warning information has been transported on a basis of emergency warning notice information included in the physical layer signaling; and a data processing section adapted to process packets supplied from the demodulation section , wherein the reception section and the demodulation section are active in a stand-by mode to monitor the emergency warning notice information while the data processing section is inactive in the stand-by mode, and the reception apparatus starts up the data processing section automatically from the stand-by mode to a normal mode in a case where the emergency warning notice information indicates that the emergency warning information has been transported, wherein the monitoring information includes monitoring target information indicating identification information for identifying a frequency band assigned to each emergency warning service or a broadcasting network as information for specifying an emergency warning service to be monitored. a reception section adapted to receive a physical layer frame transported as a broadcast signal, wherein monitoring information is included in upper layer signalling that is signalling in a layer higher than a physical layer, and is used to monitor a specific emergency warning service, a demodulation section adapted to demodulate physical layer signalling acquired from the physical layer frame and monitor whether emergency warning information has been transported on a basis of emergency warning notice information included in the physical layer signaling; and a data processing section adapted to process packets supplied from the demodulation section , wherein the reception section and the demodulation section are active in a stand-by mode to monitor the emergency warning notice information while the data processing section is inactive in the stand-by mode, and the reception apparatus starts up the data processing section automatically from the stand-by mode to a normal mode in a case where the emergency warning notice information indicates that the emergency warning information has been transported, wherein the monitoring information includes monitoring target information indicating identification information for identifying a frequency band assigned to each emergency warning service or a broadcasting network as information for specifying an emergency warning service to be monitored.
A process for metallising a polymeric surface of an article, which process comprises applying to the polymeric surface a liquid carrier containing a suspension of leafing particles of metallic appearance, being made of, or coated with, a metal or an alloy, or of mica, wherein the polymeric surface and the liquid carrier are such that the wetting angle between the liquid carrier and the polymeric surface is of substantially 90° or above and wherein the particles and the polymeric surface are such that the particles have a greater affinity to the polymeric surface than to one another or to the liquid, whereby particles suspended in the liquid migrate to the interface between the liquid and the polymeric surface to form a monolayer coating of particles on the polymeric surface.
A method for forming a bonded mass of adhered solid pieces, comprising: a) forming a mass of two or more separate solid pieces, such that a contacting surface of each of said solid pieces is in contact with a contacting surface of one or more adjacent solid pieces at one or more bondlines, wherein said contacting surfaces each are of a solid, non-melting organic polymer produced in a reaction of a reaction mixture containing at least one liquid polyol having an average functionality of at least 2.5 and at least one liquid polyisocyanate compound having an isocyanate functionality of 1.9 to 4, and in which the isocyanate index is 0.3 to 0.9, the organic polymer having a main dry glass transition temperature as measured by dynamic mechanical thermal analysis of 40 to 130°C, a wet aged glass transition temperature at least 15°C lower than the main dry glass transition temperature but not greater than 60°C, wherein the wet aged glass transition temperature is measured by immersing a sample of the polymer in deionized water at 50°C for 18 hours and then measuring the glass transition temperature of the polymer by dynamic mechanical thermal analysis, a density of at least 500 kg/m 3 and no more than 0.25% by weight isocyanate groups; and b) heating the mass at a bonding temperature of at least 40°C and up to 100°C in the presence of water and applied pressure to bond the solid pieces at the bondline or bondlines to form the bonded mass. a) forming a mass of two or more separate solid pieces, such that a contacting surface of each of said solid pieces is in contact with a contacting surface of one or more adjacent solid pieces at one or more bondlines, wherein said contacting surfaces each are of a solid, non-melting organic polymer produced in a reaction of a reaction mixture containing at least one liquid polyol having an average functionality of at least 2.5 and at least one liquid polyisocyanate compound having an isocyanate functionality of 1.9 to 4, and in which the isocyanate index is 0.3 to 0.9, the organic polymer having a main dry glass transition temperature as measured by dynamic mechanical thermal analysis of 40 to 130°C, a wet aged glass transition temperature at least 15°C lower than the main dry glass transition temperature but not greater than 60°C, wherein the wet aged glass transition temperature is measured by immersing a sample of the polymer in deionized water at 50°C for 18 hours and then measuring the glass transition temperature of the polymer by dynamic mechanical thermal analysis, a density of at least 500 kg/m 3 and no more than 0.25% by weight isocyanate groups; and b) heating the mass at a bonding temperature of at least 40°C and up to 100°C in the presence of water and applied pressure to bond the solid pieces at the bondline or bondlines to form the bonded mass.
A package , comprising: a support structure comprising an electrically insulating material; a microelectromechanical system (MEMS) component ; a cover structure comprising an electrically insulating material, wherein the cover structure is configured as a printed circuit board, or as a section thereof, wherein the cover structure has a cavity , and wherein the cover structure is mounted on the support structure for covering the MEMS component so that the MEMS component is located in the cavity ; and an electronic component embedded in one of the support structure and the cover structure ; wherein at least one of the support structure and the cover structure comprises an electrically conductive contact structure , and wherein at least a part of the electrically conductive contact structure is configured for electrically coupling the electronic component with the MEMS component . a support structure comprising an electrically insulating material; a microelectromechanical system (MEMS) component ; a cover structure comprising an electrically insulating material, wherein the cover structure is configured as a printed circuit board, or as a section thereof, wherein the cover structure has a cavity , and wherein the cover structure is mounted on the support structure for covering the MEMS component so that the MEMS component is located in the cavity ; and an electronic component embedded in one of the support structure and the cover structure ; wherein at least one of the support structure and the cover structure comprises an electrically conductive contact structure , and wherein at least a part of the electrically conductive contact structure is configured for electrically coupling the electronic component with the MEMS component .
A honeycomb structure , comprising: a pillar-shaped honeycomb bonded assembly that has a plurality of honeycomb segments having a porous partition wall defining a plurality of cells , the cells extending from an inflow end face as one end face to an outflow end face as another end face and becoming channels for a fluid, and a bonding layer bonding side surfaces of the plurality of honeycomb segments to one another, wherein the honeycomb segments contain silicon carbide, the bonding layer contains mica, or the bonding layer contains alumina and at least one kind selected from the group consisting of alumina fiber, calcined mica and a bio-soluble fiber, and the thermal expansion coefficient of the bonding layer and the thermal expansion coefficient of the honeycomb segment of the honeycomb bonded assembly meet a relationship represented by Expression: 1.3 < the thermal expansion coefficient of the bonding layer at 25 to 800°C divided by the thermal expansion coefficient of the honeycomb segment at 25 to 800°C < 6. a pillar-shaped honeycomb bonded assembly that has a plurality of honeycomb segments having a porous partition wall defining a plurality of cells , the cells extending from an inflow end face as one end face to an outflow end face as another end face and becoming channels for a fluid, and a bonding layer bonding side surfaces of the plurality of honeycomb segments to one another, wherein the honeycomb segments contain silicon carbide, the bonding layer contains mica, or the bonding layer contains alumina and at least one kind selected from the group consisting of alumina fiber, calcined mica and a bio-soluble fiber, and the thermal expansion coefficient of the bonding layer and the thermal expansion coefficient of the honeycomb segment of the honeycomb bonded assembly meet a relationship represented by Expression: 1.3 < the thermal expansion coefficient of the bonding layer at 25 to 800°C divided by the thermal expansion coefficient of the honeycomb segment at 25 to 800°C < 6.
A computer-implemented method for touch input via a multi-touch surface, said computer-implemented method comprising: - displaying an input widget via the multi-touch surface, the input widget including: -- first and second control fields ; -- a label bar that displays a label of an element; and -- a value bar that displays a value associated with the label of the element; - detecting a finger contact along the multi-touch surface; characterized in that the method further comprises the following three steps: - if the finger contact is detected substantially within the label bar, changing the element displayed in the input widget, including changing and displaying the label of the element in the label bar and the associated value in the value bar; - if the finger contact is detected substantially within the value bar, -- displaying a virtual keyboard ; -- receiving, from the user via the virtual keyboard, a new value related to the currently displayed element; -- adjusting the value of the currently displayed element in the value bar to display the adjusted value; - if the finger contact is detected substantially within one of the control fields , adjusting the value of the currently displayed element and to display the adjusted value. - displaying an input widget via the multi-touch surface, the input widget including: -- first and second control fields ; -- a label bar that displays a label of an element; and -- a value bar that displays a value associated with the label of the element; -- first and second control fields ; -- a label bar that displays a label of an element; and -- a value bar that displays a value associated with the label of the element; - detecting a finger contact along the multi-touch surface; - if the finger contact is detected substantially within the label bar, changing the element displayed in the input widget, including changing and displaying the label of the element in the label bar and the associated value in the value bar; - if the finger contact is detected substantially within the value bar, -- displaying a virtual keyboard ; -- receiving, from the user via the virtual keyboard, a new value related to the currently displayed element; -- adjusting the value of the currently displayed element in the value bar to display the adjusted value; -- displaying a virtual keyboard ; -- receiving, from the user via the virtual keyboard, a new value related to the currently displayed element; -- adjusting the value of the currently displayed element in the value bar to display the adjusted value; - if the finger contact is detected substantially within one of the control fields , adjusting the value of the currently displayed element and to display the adjusted value.
Injector assembly having a folding chamber which is designed to accommodate an intraocular lens comprising an optics body and two haptics , a holder , a folding wedge , which is attached to the holder and is designed to be introduced in an insertion direction into the folding chamber via a folding chamber opening and thereby to fold the intraocular lens , and two sliders which are each designed to displace one of the two haptics onto the optics body by displacement of the respective slider from a starting position into an end position, characterized in that at least one of the two sliders has a stop which is designed to butt against a component attached to the holder in the starting position of the at least one slider , as a result of which a movement of the component is blocked and the folding wedge is thereby not permitted to fold the intraocular lens , and, in the end position of the at least one slider , to permit the movement of the component and to thereby permit the folding wedge to fold the intraocular lens .
A method of dicing a monocrystalline silicon substrate comprising a plurality of integrated circuits on a front side thereof and metallization on a backside thereof, the method comprising: patterning the metallization on the backside of the monocrystalline silicon substrate with a first femtosecond-based laser scribing process to provide a first plurality of laser scribe lines on the backside; forming a water soluble mask on the front side of the monocrystalline silicon substrate; patterning, from the front side, the water soluble mask with a second femtosecond-based laser scribing process to provide a patterned water soluble mask and to provide a second plurality of scribe lines exposing regions of the monocrystalline silicon substrate between the integrated circuits, wherein the second plurality of scribe lines is aligned with the first plurality of scribe lines; plasma etching the monocrystalline silicon substrate through the second plurality of scribe lines to singulate the integrated circuits; and removing the patterned water soluble mask with an aqueous solution. patterning the metallization on the backside of the monocrystalline silicon substrate with a first femtosecond-based laser scribing process to provide a first plurality of laser scribe lines on the backside; forming a water soluble mask on the front side of the monocrystalline silicon substrate; patterning, from the front side, the water soluble mask with a second femtosecond-based laser scribing process to provide a patterned water soluble mask and to provide a second plurality of scribe lines exposing regions of the monocrystalline silicon substrate between the integrated circuits, wherein the second plurality of scribe lines is aligned with the first plurality of scribe lines; plasma etching the monocrystalline silicon substrate through the second plurality of scribe lines to singulate the integrated circuits; and removing the patterned water soluble mask with an aqueous solution.
A damper for reducing pulsation of a fluid flow, comprising: a casing ; an elastic membrane accommodated in the casing ; an outer chamber arranged between the elastic membrane and the casing ; an inner chamber defined inside the elastic membrane ; and an inlet port and an outlet port coupled to the inner chamber , wherein the elastic membrane is a balloon having an opening , wherein the elastic membrane forms at least partially the walls of the inner chamber , and wherein the inlet port and the outlet port are arranged such that propagation of a pulsation of fluid in the inner chamber from the inlet port to the outlet port is damped by absorption at the membrane , characterized in that the inlet port and the outlet port are combined to a connection member comprising an inner tube and a coaxially arranged outer tube , the inner tube protrudes a longer distance into the balloon than the outer tube . a casing ; an elastic membrane accommodated in the casing ; an outer chamber arranged between the elastic membrane and the casing ; an inner chamber defined inside the elastic membrane ; and an inlet port and an outlet port coupled to the inner chamber , wherein the elastic membrane is a balloon having an opening , wherein the elastic membrane forms at least partially the walls of the inner chamber , and wherein the inlet port and the outlet port are arranged such that propagation of a pulsation of fluid in the inner chamber from the inlet port to the outlet port is damped by absorption at the membrane , characterized in that the inlet port and the outlet port are combined to a connection member comprising an inner tube and a coaxially arranged outer tube , the inner tube protrudes a longer distance into the balloon than the outer tube .
A core sheath composite yarn having a sheath polymer that is a polyamide and a core portion that is a polyether ester amide copolymer, wherein the core sheath composite yarn has a moisture absorbance/desorbance (ΔMR) of 5.0% or more, determined as described herein, the ΔMR maintenance rate after 20 washes, determined according to no. 103 in Appendix A of JIS L0217 and as described herein, is 90% or more and 100% or less and the sheath polymer has an α-crystal orientation parameter of 1.9 or more and 2.7 or less, measured by laser Raman spectroscopy as described herein.