mhurhangee/patent-ind-claim-en huggingface dataset:
A stain disappearing laminate having a sebum absorption and diffusion layer and a sebum attachment inhibition layer laminated on a base material in this order, wherein the sebum attachment inhibition layer repels sebum and reduces attachment of the sebum, as well as allows attached sebum to pass through to a sebum attachment inhibition layer side, wherein the sebum absorption and diffusion layer absorbs the sebum passed through the sebum attachment inhibition layer and diffuses the sebum within the sebum absorption and diffusion layer itself, wherein the sebum attachment inhibition layer is formed with a material containing a fluorine-containing compound, wherein the fluorine-containing compound includes a silane coupling agent containing fluorine, and wherein the sebum absorption and diffusion layer contains at least one type of polymer material having a three-dimensional network structure containing a silicone elastomer. wherein the sebum attachment inhibition layer repels sebum and reduces attachment of the sebum, as well as allows attached sebum to pass through to a sebum attachment inhibition layer side, wherein the sebum absorption and diffusion layer absorbs the sebum passed through the sebum attachment inhibition layer and diffuses the sebum within the sebum absorption and diffusion layer itself, wherein the sebum attachment inhibition layer is formed with a material containing a fluorine-containing compound, wherein the fluorine-containing compound includes a silane coupling agent containing fluorine, and wherein the sebum absorption and diffusion layer contains at least one type of polymer material having a three-dimensional network structure containing a silicone elastomer.
A paperboard sealing disc for use in a packaging container , said sealing disc being delimited by a sealing disc outer edge , said sealing disc comprising a peripheral edge portion surrounding a tear-open part , said sealing disc comprising a first side and a second side , said tear-open part being delimited from said peripheral edge portion by a first cutting line provided on said first side and by a second cutting line (5") provided on said second side , each of said first and said second cutting lines (5',5") extending only partly through the thickness of said sealing disc , said first cutting line being provided at a distance d1 from said sealing disc outer edge , and said second cutting line (5") being provided at a distance d2 from said sealing disc outer edge , said tear-open part furthermore comprising a push-tab and a pull-away part , said push-tab being at least partly delimited with respect to said pull-away part by a folding line , characterized in that said first cutting line intersecting with said second cutting line (5") at a first and a second intersection , wherein d1 >d2 at said push-tab and d2>d1 at said pull-away part , wherein d1 at said push-tab is substantially the same as d2 at said pull-away part and d2 at said push-tab is substantially the same as d1 at said pull-away part , and in that said folding line extends, as a straight line, from said first intersection between said first cutting line and said second cutting line (5") to said second intersection between said first cutting line and said second cutting line (5"). said first cutting line intersecting with said second cutting line (5") at a first and a second intersection , wherein d1 >d2 at said push-tab and d2>d1 at said pull-away part , wherein d1 at said push-tab is substantially the same as d2 at said pull-away part and d2 at said push-tab is substantially the same as d1 at said pull-away part , and in that said folding line extends, as a straight line, from said first intersection between said first cutting line and said second cutting line (5") to said second intersection between said first cutting line and said second cutting line (5").
A method of processing audio, the method comprising: receiving , by a computing device , a plurality of real-time audio signals outputted by a plurality of microphones communicatively coupled to the computing device wherein the plurality of microphones are located in the computing device ; generating a plurality of channels of audio signals from the signals outputted by the plurality of microphones ; detecting, by the computing device , a type of location associated with the received audio signals; outputting , to a display, a graphical user interface GUI for presenting noise information associated with the one or more of the received audio signals , wherein the noise information includes a noise suppression recommendation based on the type of location associated with the received audio signals ; processing one or more of the received audio signals based on a user input associated with the noise information presented via the GUI to generate one or more processed audio signals wherein processing the one or more of the received audio signal comprises at least one of disabling one of the audio channels, suppressing noise associated with one of the audio channels, or moving any audio signals from one of the audio channels to a different one of the audio channels based on the type of location ; and outputting the one or more processed audio signals . receiving , by a computing device , a plurality of real-time audio signals outputted by a plurality of microphones communicatively coupled to the computing device wherein the plurality of microphones are located in the computing device ; generating a plurality of channels of audio signals from the signals outputted by the plurality of microphones ; detecting, by the computing device , a type of location associated with the received audio signals; outputting , to a display, a graphical user interface GUI for presenting noise information associated with the one or more of the received audio signals , wherein the noise information includes a noise suppression recommendation based on the type of location associated with the received audio signals ; processing one or more of the received audio signals based on a user input associated with the noise information presented via the GUI to generate one or more processed audio signals wherein processing the one or more of the received audio signal comprises at least one of disabling one of the audio channels, suppressing noise associated with one of the audio channels, or moving any audio signals from one of the audio channels to a different one of the audio channels based on the type of location ; and outputting the one or more processed audio signals .
Sensor system for detecting a movement in a predetermined direction of movement of an infrared light source , having at least one infrared light sensor pair comprising two infrared light sensors (4, 5; 36, 37) which are arranged adjacent to one another with respect to the direction of movement and thereby define a sensor coverage distance which is determined by the distance of the ends , facing away from one another, of the infrared light sensors (4, 5; 36, 37) with respect to the direction of movement , and are set up in such a way that, upon irradiation with the infrared light source , they make electrical signals available in a tappable manner for detecting the movement of the infrared light source , the charge signs of which signals are opposite, the sensor system having a window between the infrared light sensors (4, 5; 36, 37) and the infrared light source , the window being arranged at a distance from the infrared light sensors (4, 5; 36, 37) which is referred to as a window distance , and through which the infrared light of the infrared light source can be transmitted to the infrared light sensors (4, 5; 36, 37) and behind which the infrared light sensors (4, 5; 36, 37) are arranged and the arrangement of which and their extension in the direction of movement are matched to the width of the window in such a way that beyond a predetermined limit distance away from the window the infrared light sensors (4, 5; 36, 37) each have a full-irradiation zone defining the locations from which the infrared light source fully illuminates only one of the infrared light sensors (4, 36 or 5, 37), the full-irradiation zones resulting from the position of the first window edge , the second window edge , the sensor inner edges and the sensor outer edges of the infrared light sensors (4, 36 or 5, 37) do not spatially overlap beyond the limit distance , the window having a window width between the first window edge and the second window edge in the direction of movement , and the window width in the direction of movement being smaller than the sensor coverage distance , the sensor coverage distance projecting beyond the window on both sides and of equal length.
Switching device comprising a housing with a cap which can pivot about a rotation axis , and comprising a fastening apparatus for direct mounting on a mounting rail , - wherein the cap has, on a side which faces the housing inner side, at least one coupling contact for electrical and/or signal-transmitting contact connection to at least one adjacent switching device which can be arranged in a row on the end side of the housing , - wherein, when the cap is pivoted, the contact connection is closed or released, - wherein, when the cap is pivoted, the fastening apparatus is locked or unlocked, and - wherein the fastening apparatus comprises a spring-elastic latching element , which is integrally formed on the housing , for force-fitting fastening to a mounting rail end side and also comprises a sliding element , which is linearly displaceably mounted within the housing and is coupled to the cap , for interlocking fastening to the mounting rail end side which is situated opposite the latching element . - wherein the cap has, on a side which faces the housing inner side, at least one coupling contact for electrical and/or signal-transmitting contact connection to at least one adjacent switching device which can be arranged in a row on the end side of the housing , - wherein, when the cap is pivoted, the contact connection is closed or released, - wherein, when the cap is pivoted, the fastening apparatus is locked or unlocked, and - wherein the fastening apparatus comprises a spring-elastic latching element , which is integrally formed on the housing , for force-fitting fastening to a mounting rail end side and also comprises a sliding element , which is linearly displaceably mounted within the housing and is coupled to the cap , for interlocking fastening to the mounting rail end side which is situated opposite the latching element .
Door for a refrigerating appliance with an outer envelope foamed with insulation material, which comprises an outer plate covering an outer side of the door and at least one part of lateral flanks of the door in one piece, wherein a lateral edge (5-11) of the outer plate features at least one section angled away from the lateral flank into the inside of the door, which section forms one side of a grip channel recessed from the lateral flank into the door, wherein the lateral edge (5-11) of the outer plate is reinforced by at least one section at a distance from the outer and inner side of the door angled away from the lateral flank into the inside of the door, wherein the upper and/or the lower side of the door is or are closed off by a head piece , characterised in that the grip channel is covered at at least one of its longitudinal ends by an inserted moulded section , wherein the head piece on a front side features a groove for accepting a section angled away from an edge of the outer plate and wherein the head piece is connected to the moulded part by tongue and groove .
A method associated with device to device, D2D, signaling by a wireless transmit/receive device, WTRU (102a-d), comprising : determining a D2D discovery signal schedule indicating allowed subframes to transmit a D2D discovery signal; determining a scrambling sequence, wherein the scrambling sequence is generated using a scrambling sequence generator that is initialized with a pre-configured fixed value at the start of each subframe associated with the D2D discovery signal; determining to transmit the D2D discovery signal on one or more resource blocks associated with the allowed subframes; and transmitting the D2D discovery signal using the scrambling sequence, wherein the D2D discovery signal comprises a payload and a guard period, wherein the guard period is included at the end of the D2D discovery signal. determining a D2D discovery signal schedule indicating allowed subframes to transmit a D2D discovery signal; determining a scrambling sequence, wherein the scrambling sequence is generated using a scrambling sequence generator that is initialized with a pre-configured fixed value at the start of each subframe associated with the D2D discovery signal; determining to transmit the D2D discovery signal on one or more resource blocks associated with the allowed subframes; and transmitting the D2D discovery signal using the scrambling sequence, wherein the D2D discovery signal comprises a payload and a guard period, wherein the guard period is included at the end of the D2D discovery signal.
Renovation packer for renovating objects and in particular pipes, ducts and the like, comprising an elongate main body which can be inserted into the object to be renovated and can be expanded in the interior of said object, wherein said main body being flexible and being expandable by means of a flowable medium which can be supplied to said main body, wherein at least one guide means being arranged on the main body for guiding said main body relative to an inner wall of the object, wherein the guide means comprising at least two rotatable bodies which are suitable and intended to roll relative to the inner wall of the object, wherein the rotatable bodies each being arranged on at least two pivotable arms , characterized in that the at least two rotatable bodies are removable from the main body and are arranged on the main body by means of a plug-in connection.
A fluid and/or material level detection device for detecting a fluid level, the detection device comprising a cable or transmission line comprising a coaxial cable and an electromagnetic transmitter and receiver arrangement connected or connectable to the cable or transmission line; wherein the cable or transmission line acts as an antenna, and comprises: an inner conductor ; an outer conductor comprising a plurality of apertures or slots provided in a spaced relation along at least part of a length of the outer conductor; the inner conductor being provided within the outer conductor; wherein the cable or transmission line is configured as a radiating cable, RC, and/or a leaky feeder, LF, or leaky cable or hybrid of a leaky cable with a standard/nonleaky coaxial cable; and the transmitter and receiver arrangement is connected or connectable to the inner conductor; and wherein the cable or transmission line is configured to propagate an electromagnetic signal from the electromagnetic transmitter and to propagate a reflection of the electromagnetic signal, caused by an impedance change along the length of the cable or transmission line, to the receiver for detecting the fluid level. the cable or transmission line acts as an antenna, and comprises: an inner conductor ; an outer conductor comprising a plurality of apertures or slots provided in a spaced relation along at least part of a length of the outer conductor; the inner conductor being provided within the outer conductor; wherein the cable or transmission line is configured as a radiating cable, RC, and/or a leaky feeder, LF, or leaky cable or hybrid of a leaky cable with a standard/nonleaky coaxial cable; and the transmitter and receiver arrangement is connected or connectable to the inner conductor; and wherein an inner conductor ; an outer conductor comprising a plurality of apertures or slots provided in a spaced relation along at least part of a length of the outer conductor; the inner conductor being provided within the outer conductor; wherein the cable or transmission line is configured as a radiating cable, RC, and/or a leaky feeder, LF, or leaky cable or hybrid of a leaky cable with a standard/nonleaky coaxial cable; and the cable or transmission line is configured to propagate an electromagnetic signal from the electromagnetic transmitter and to propagate a reflection of the electromagnetic signal, caused by an impedance change along the length of the cable or transmission line, to the receiver for detecting the fluid level.
A cartridge case configured to support a liquid container containing a liquid, a spout being provided on the liquid container and the liquid container having a rear edge on an opposite side from the spout , the cartridge case comprising: a case including a first face extending in a first direction and extending in an orthogonal direction orthogonal to the first direction, and including a front end portion of the case at a front end portion side of the case in the first direction; a spout support portion provided on the front end portion side of the case , and configured to support the spout provided on the liquid container ; an elastic member having an end portion on a first direction side of the elastic member and extending in a second direction, the second direction being an opposite direction from the first direction, and the elastic member being configured to generate an energizing force in the first direction; and a mount portion in which the end portion of the elastic member is mountable, the mount portion being provided on the front end portion side of the case ; a roll-up member extending in an orthogonal direction, and the roll-up member being configured to roll up the liquid container by being moved in the first direction by the energizing force of the elastic member ; characterized by : a resistance portion configured to generate resistance to movement of the roll-up member in the first direction towards the front end portion side of the case , the resistance portion being configured to increase the resistance as the roll-up member moves in the first direction towards the spout support portion . a case including a first face extending in a first direction and extending in an orthogonal direction orthogonal to the first direction, and including a front end portion of the case at a front end portion side of the case in the first direction; a spout support portion provided on the front end portion side of the case , and configured to support the spout provided on the liquid container ; an elastic member having an end portion on a first direction side of the elastic member and extending in a second direction, the second direction being an opposite direction from the first direction, and the elastic member being configured to generate an energizing force in the first direction; and a mount portion in which the end portion of the elastic member is mountable, the mount portion being provided on the front end portion side of the case ; a roll-up member extending in an orthogonal direction, and the roll-up member being configured to roll up the liquid container by being moved in the first direction by the energizing force of the elastic member ; characterized by : a resistance portion configured to generate resistance to movement of the roll-up member in the first direction towards the front end portion side of the case , the resistance portion being configured to increase the resistance as the roll-up member moves in the first direction towards the spout support portion .
A coating composition comprising: (a) a polymeric coating binder, wherein the polymeric coating binder comprises: (i) an aqueous polymer latex of a film forming carboxylated polymer; and (ii) a branched polyetheramine polyol dissolved in the aqueous phase of the polymer latex, wherein essentially all of the amino groups in the branched polyetheramine polyol are tertiary amine groups; wherein the polymeric coating binder is present in the coating composition in an amount of 10 to 20 wt% (based on dry weight of the polymeric coating binder); and wherein the total solids content of the coating composition is at least 60.5 wt%. (a) a polymeric coating binder, wherein the polymeric coating binder comprises: (i) an aqueous polymer latex of a film forming carboxylated polymer; and (ii) a branched polyetheramine polyol dissolved in the aqueous phase of the polymer latex, wherein essentially all of the amino groups in the branched polyetheramine polyol are tertiary amine groups; (i) an aqueous polymer latex of a film forming carboxylated polymer; and (ii) a branched polyetheramine polyol dissolved in the aqueous phase of the polymer latex, wherein essentially all of the amino groups in the branched polyetheramine polyol are tertiary amine groups; wherein the polymeric coating binder is present in the coating composition in an amount of 10 to 20 wt% (based on dry weight of the polymeric coating binder); and wherein the total solids content of the coating composition is at least 60.5 wt%.
A method of operation of a communication system comprising: providing error probability estimation feedback information from a decoder module to an encoder module in a transmitter for calculating a generator matrix for a bit channel mapped to transmission channels; receiving a receiver signal with an antenna based on communication of a transmitter signal from the transmitter over the transmission channels according to a polar coding scheme, wherein the polar coding scheme is based on the error probability estimation feedback information; generating, by an arrangement module included in a communication unit, a sequenced-signal based on the receiver signal according to a permutation mechanism; and determining, by the decoder module coupled to the arrangement module and included in the communication unit, a communication content based on the sequenced-signal for communicating the communication content transmitted in the transmitter signal by the transmitter , wherein the bit channel is a representation of influences and processes between a bit in the communication content and a corresponding value in a decoding result representing an estimation of the communication content, wherein the communication unit is configured to process the receiver signal for representing a coded-message based on an initial building block and a transformation mechanism according to the polar coding scheme, wherein the initial building block is a mechanism for polarizing the communication content for transmission between devices. providing error probability estimation feedback information from a decoder module to an encoder module in a transmitter for calculating a generator matrix for a bit channel mapped to transmission channels; receiving a receiver signal with an antenna based on communication of a transmitter signal from the transmitter over the transmission channels according to a polar coding scheme, wherein the polar coding scheme is based on the error probability estimation feedback information; generating, by an arrangement module included in a communication unit, a sequenced-signal based on the receiver signal according to a permutation mechanism; and determining, by the decoder module coupled to the arrangement module and included in the communication unit, a communication content based on the sequenced-signal for communicating the communication content transmitted in the transmitter signal by the transmitter , wherein the bit channel is a representation of influences and processes between a bit in the communication content and a corresponding value in a decoding result representing an estimation of the communication content, wherein the communication unit is configured to process the receiver signal for representing a coded-message based on an initial building block and a transformation mechanism according to the polar coding scheme, wherein the initial building block is a mechanism for polarizing the communication content for transmission between devices.