mhurhangee/ep-ind-claims huggingface dataset:
A dispenser, comprising: a housing having a front side; a dispensing point proximate the front side of the housing; a container containing a liquid to be dispensed; a tube coupled to the container; and a peristaltic pump coupled to the tube and operable to pump liquid from the container through the tube toward the dispensing point, a self-sealing dispensing valve (92, 104, 110, 120) coupled to the tube downstream of the peristaltic pump; characterised by a tamper evident seal (100, 106, 114, 122) over the self-sealing dispensing valve (92, 104, 110, 120). a housing having a front side; a dispensing point proximate the front side of the housing; a container containing a liquid to be dispensed; a tube coupled to the container; and a peristaltic pump coupled to the tube and operable to pump liquid from the container through the tube toward the dispensing point, a self-sealing dispensing valve (92, 104, 110, 120) coupled to the tube downstream of the peristaltic pump; characterised by a tamper evident seal (100, 106, 114, 122) over the self-sealing dispensing valve (92, 104, 110, 120).
Ethylene/1,3-butadiene copolymer comprising ethylene units, butadiene units and UD units of cyclic structure of formula and bearing, at one of its chain ends, an alkoxysilyl or silanol function, functional group F 1.
A system comprising: a heat exchanger (34, 54); at least one conduit along a fluid flow path into the heat exchanger (34, 54); a first radiation sensor having a first field of view directed toward the at least one conduit, wherein the first radiation sensor is configured to detect thermal radiation emitted by the at least one conduit and output a first signal indicative of a first temperature of the at least one conduit; a controller communicatively coupled to the first radiation sensor, wherein the controller is configured to determine the first temperature based on the first signal, to compare the first temperature to a threshold range, and to adjust a fluid flow through the fluid flow path or the at least one conduit if the first temperature deviates from the threshold range; characterized in further comprising a first electrical enclosure containing a plurality of components; and a second radiation sensor having a second field of view directed toward an interior of the first electrical enclosure, wherein the second radiation sensor is configured to detect thermal radiation emitted by the first electrical enclosure and output a second signal indicative of a second temperature of the interior of the first electrical enclosure, wherein the second radiation sensor is communicatively coupled to the controller; wherein the controller is configured to detect an electrical fault among the plurality of components based on the second signal, and to reroute electrical power to a second electrical enclosure upon detection of the electrical fault. a heat exchanger (34, 54); at least one conduit along a fluid flow path into the heat exchanger (34, 54); a first radiation sensor having a first field of view directed toward the at least one conduit, wherein the first radiation sensor is configured to detect thermal radiation emitted by the at least one conduit and output a first signal indicative of a first temperature of the at least one conduit; a controller communicatively coupled to the first radiation sensor, wherein the controller is configured to determine the first temperature based on the first signal, to compare the first temperature to a threshold range, and to adjust a fluid flow through the fluid flow path or the at least one conduit if the first temperature deviates from the threshold range; characterized in further comprising a first electrical enclosure containing a plurality of components; and a second radiation sensor having a second field of view directed toward an interior of the first electrical enclosure, wherein the second radiation sensor is configured to detect thermal radiation emitted by the first electrical enclosure and output a second signal indicative of a second temperature of the interior of the first electrical enclosure, wherein the second radiation sensor is communicatively coupled to the controller; wherein the controller is configured to detect an electrical fault among the plurality of components based on the second signal, and to reroute electrical power to a second electrical enclosure upon detection of the electrical fault.
Use of polyoxymethylenedi(alkylpolyglycol)ethers with the general formula RO(CH 2 CH 2 O) n (CH 2 O) m (CH 2 CH 2 O) n R, wherein R is an alkyl residue, n ≤ 3 and m ≤ 6, as an additive for diesel fuels to reduce the soot emission in compression ignition engines, wherein the polyoxymethylenedi(alkylpolyglycol)ethers are used in an amount of less than 15 Vol.%, with respect to the diesel fuel.
A thermal head, comprising: a substrate; a thermal storage layer disposed on one main surface of the substrate so as to extend to an edge of the substrate, the thermal storage layer being formed of glass; electrodes (17, 19) disposed on or above the thermal storage layer apart from the edge of the substrate; heat-generating resistors disposed above the thermal storage layer apart from the edge of the substrate, the heat-generating resistors being connected to the electrodes (17, 19); a first covering layer disposed on or above the electrodes (17, 19) and the heat-generating resistors; and a protection film disposed on or above the first covering layer, the first covering layer extending from atop the electrodes (17, 19) and the heat-generating resistors toward atop the thermal storage layer on the edge of the substrate, the protection film being disposed on or above the first covering layer disposed on or above the electrodes (17, 19) and the heat-generating resistors and an edge of the protection film being not disposed above the edge of the substrate, characterized in that as seen from a direction orthogonal to the one main surface of the substrate, the edge of the protection film is positioned between the electrodes (17, 19) and the edge of the substrate and is positioned between the heat-generating resistors and the edge of the substrate. a substrate; a thermal storage layer disposed on one main surface of the substrate so as to extend to an edge of the substrate, the thermal storage layer being formed of glass; electrodes (17, 19) disposed on or above the thermal storage layer apart from the edge of the substrate; heat-generating resistors disposed above the thermal storage layer apart from the edge of the substrate, the heat-generating resistors being connected to the electrodes (17, 19); a first covering layer disposed on or above the electrodes (17, 19) and the heat-generating resistors; and a protection film disposed on or above the first covering layer, the first covering layer extending from atop the electrodes (17, 19) and the heat-generating resistors toward atop the thermal storage layer on the edge of the substrate, the protection film being disposed on or above the first covering layer disposed on or above the electrodes (17, 19) and the heat-generating resistors and an edge of the protection film being not disposed above the edge of the substrate, characterized in that as seen from a direction orthogonal to the one main surface of the substrate, the edge of the protection film is positioned between the electrodes (17, 19) and the edge of the substrate and is positioned between the heat-generating resistors and the edge of the substrate.
A lighting unit for use in a lighting system, the lighting system comprising a programming unit and a light switch configured for electrical communication with the lighting unit via an electrical circuit and being operable in a first and a second operational position, the lighting unit comprising: - an illumination module, and - a programmable control module; wherein the programmable control module is configured for wireless communication with the programming unit via a wireless communication link, characterized in that the programmable control module is configured to be programmed by the programming unit such that, in response to different patterns of movement of the light switch between the first and second operational positions, the programmable control module is configured to cause the illumination module to output different illumination modes in response to the different patterns of movement of the light switch; wherein each of the different patterns of movement of the light switch are defined by different numbers of times the light switch is moved between the first and second operational position and/or different speeds of movement of the light switch between the first and second operational positions of the light switch. - an illumination module, and - a programmable control module; wherein the programmable control module is configured for wireless communication with the programming unit via a wireless communication link, characterized in that the programmable control module is configured to be programmed by the programming unit such that, in response to different patterns of movement of the light switch between the first and second operational positions, the programmable control module is configured to cause the illumination module to output different illumination modes in response to the different patterns of movement of the light switch; wherein each of the different patterns of movement of the light switch are defined by different numbers of times the light switch is moved between the first and second operational position and/or different speeds of movement of the light switch between the first and second operational positions of the light switch.
Coolant circuit of a cooling system, with a pipe-shaped body into which a sound absorber is inserted, wherein the body forms a cavity, and wherein the silencer is in the form of an insert which is inserted into the cavity of the pipe-shaped body, and wherein the insert delimits a flow channel and at least one resonator chamber (5, 6, 7, 8) which is connected to the flow channel via a connecting channel (19, 19', 20, 20', 21, 21', 22, 22'), wherein the insert has at least one outward pointing web (16, 17, 18) for contacting an interior wall of the pipe-shaped body, wherein the at least one web (16, 17, 18) delimits the resonator chamber (5, 6, 7, 8) in an axial direction of the insert, and wherein the at least one resonator chamber (5, 6, 7, 8) is delimited at its outer side by a wall of the pipe-shaped body, and wherein the insert has a partition which forms the flow channel and which separates said flow channel from the at least one resonator chamber (5, 6, 7, 8), and wherein the partition is formed by a section of the insert which forms an inner pipe, characterized in that the web (16, 17, 18) separates two adjacent resonator chambers (5, 6, 7, 8).
An anti-icing system for a gas turbine engine having a compressor section in flow communication with a nacelle, the anti-icing system being constructed and arranged to channel hot air from a compressor section to a nacelle; and comprising an anti-icing valve constructed and arranged to control a flow of the hot air from the compressor section to the nacelle, the anti-icing valve including a partially open position to constrict a flow of the hot air from the compressor section to the nacelle, wherein the anti-icing valve includes a locking mechanism operative to lock the anti-icing valve in the partially open position, characterized by the locking mechanism comprising: a rod that is removably coupled to a piston through a rack and pinion gear, wherein the rack is positioned on the piston and a pinion gear is provided at an end of the rod, and wherein the rod is movable into contact with the piston by axially displacing a turn mechanism coupled to the rod; and a spring biases the rod pinion gear out of contact from the rack, wherein axial displacement of the turn mechanism toward the rack collapses the spring, allowing the pinion gear to engage the rack. a rod that is removably coupled to a piston through a rack and pinion gear, wherein the rack is positioned on the piston and a pinion gear is provided at an end of the rod, and wherein the rod is movable into contact with the piston by axially displacing a turn mechanism coupled to the rod; and a spring biases the rod pinion gear out of contact from the rack, wherein axial displacement of the turn mechanism toward the rack collapses the spring, allowing the pinion gear to engage the rack.
An apparatus that is configured for dynamic normalization to reduce loss in precision for low-level digital audio signals, comprising: means for determining a normalization factor for a current frame of a low band excitation signal, wherein the normalization factor depends on an amplitude of the current frame of the low band excitation signal, wherein the amplitude refers to the maximum of absolute values of the amplitude values of the current frame, and wherein the normalization factor also depends on values of filter states of a high band excitation generator after one or more operations were performed on a previous frame of a normalized low band excitation signal; means for normalizing the current frame of the low band excitation signal based on the normalization factor that is determined; and means for adjusting the filter states' normalization factor based on the normalization factor that is determined; and wherein the high band excitation generator is configured to derive a high band excitation signal from the normalized low band excitation signal, and wherein the high band excitation generator is configured to not use least significant bits from the normalized low band excitation signal to derive the high band excitation signal; and wherein determining the current frame's normalization factor, normalizing the current frame of the low band excitation signal, and adjusting the filter states are performed for each frame of the low band excitation signal. means for determining a normalization factor for a current frame of a low band excitation signal, wherein the normalization factor depends on an amplitude of the current frame of the low band excitation signal, wherein the amplitude refers to the maximum of absolute values of the amplitude values of the current frame, and wherein the normalization factor also depends on values of filter states of a high band excitation generator after one or more operations were performed on a previous frame of a normalized low band excitation signal; means for normalizing the current frame of the low band excitation signal based on the normalization factor that is determined; and means for adjusting the filter states' normalization factor based on the normalization factor that is determined; and wherein the high band excitation generator is configured to derive a high band excitation signal from the normalized low band excitation signal, and wherein the high band excitation generator is configured to not use least significant bits from the normalized low band excitation signal to derive the high band excitation signal; and wherein determining the current frame's normalization factor, normalizing the current frame of the low band excitation signal, and adjusting the filter states are performed for each frame of the low band excitation signal.
A method of low latency device-to-device wireless communication at a first mobile device (115-c) in a system that supports a first duration transmission time interval, TTI, and a second duration TTI that is greater than the first duration TTI, comprising: receiving a synchronization or discovery signal from a second mobile device (115-d) during the second duration TTI; receiving from a base station a request for a sidelink quality report; transmitting the sidelink quality report to the base station in response to the request; receiving an indication from the base station to operate using the first duration TTI, in response to the sidelink quality report and based at least in part on the first mobile device (115-c) having a sidelink quality above a threshold; receiving (415; 1305; 1405), from the second mobile device (115-d) during the first duration TTI, a control message comprising an indicator of a pattern corresponding to a sequence of transmissions that use the first duration TTI, wherein the sequence of transmissions comprises data transmissions and reference signal transmissions; receiving the sequence from the second mobile device (115-d); identifying (425; 1310; 1410) the pattern by selecting the pattern from a predetermined set of patterns based at least in part on the indicator; and decoding (430; 1315; 1415) the sequence of transmissions using the pattern. receiving a synchronization or discovery signal from a second mobile device (115-d) during the second duration TTI; receiving from a base station a request for a sidelink quality report; transmitting the sidelink quality report to the base station in response to the request; receiving an indication from the base station to operate using the first duration TTI, in response to the sidelink quality report and based at least in part on the first mobile device (115-c) having a sidelink quality above a threshold; receiving (415; 1305; 1405), from the second mobile device (115-d) during the first duration TTI, a control message comprising an indicator of a pattern corresponding to a sequence of transmissions that use the first duration TTI, wherein the sequence of transmissions comprises data transmissions and reference signal transmissions; receiving the sequence from the second mobile device (115-d); identifying (425; 1310; 1410) the pattern by selecting the pattern from a predetermined set of patterns based at least in part on the indicator; and decoding (430; 1315; 1415) the sequence of transmissions using the pattern.
A lighting device for a headlamp of a vehicle at least comprising - an array of light sources, consisting of first and second light sources being mounted within the same flat or curved plane, and - a projecting optical system arranged to project light emitted by the light sources in a forward direction of the lighting device, wherein at least one shifting element is arranged in front of said first light sources, said shifting element generating real or virtual emission positions of the light of said first light sources shifted towards or away from said projecting optical system with respect to emission positions of said second light sources, and characterized in that the second light sources are for providing a lighting function of illumination of a road, said lighting function being a main function of illumination obtained by focusing the second light sources to a common image plane, and the first light sources are for providing a different lighting function of a sharp projection of a signature or light pattern at at least one distance ahead of the lighting device, said different lighting function obtained by focusing the shifted emission positions of the light of said first light sources to at least one further image plane, such further image plane being different from the common image plane of the second light sources.. - an array of light sources, consisting of first and second light sources being mounted within the same flat or curved plane, and - a projecting optical system arranged to project light emitted by the light sources in a forward direction of the lighting device,
A fastener tape (10, 20) for a slide fastener, the fastener tape (10, 20) including a tape main body portion (12, 22) having a warp knitting structure and an element attachment portion (11, 21) knitted along one side edge of the tape main body portion (12, 22), a core thread (15, 25) being knitted into the element attachment portion (11, 21) at a same time, and the tape main body portion (12, 22) including a first tape main body portion region (12a, 22a) arranged at the side of the element attachment portion (11, 21) and having at least one wale and a second tape main body portion region (12b, 22b) arranged from a wale adjacent to the first tape main body portion region (12a, 22a) to the other side edge of the tape main body portion (12, 22), being characterized by a wale interval between a wale of the element attachment portion (11, 21) adjacent to the first tape main body portion region (12a, 22a) and wales (W3 to W5) constituting the first tape main body portion region (12a, 22a) being narrower than a wale interval between wales (W6 to W11) constituting the second tape main body portion region (12b, 22b).
A mobile station (MTC-UE) supporting machine type communication and configured to be used in a mobile communication system having a configuration in which a radio base station (eNB) is connected to a first mobile communication network (PLMN#1) and a second mobile communication network (PLMN#2) and in which the first mobile communication network (PLMN#1) and the second mobile communication network (PLMN#2) include different core networks (CN#1, CN#2), the mobile station (MTC-UE) comprising: a determination unit configured to determine existence of access control, wherein the first mobile communication network (PLMN#1) is a mobile communication network in the top of a mobile communication network list included in first broadcast information received by the mobile station (MTC-UE), the second mobile communication network (PLMN#2) is a mobile communication network, for which an attachment procedure conducted by the mobile station (MTC-UE) is successful, and responsive to an EAB, extended access barring, parameter for an R-PLMN, registered-public land mobile network, to be applied to the second mobile communication network (PLMN#2) set in second broadcast information received by the mobile station (MTC-UE) in addition to an EAB parameter for a P-PLMN, primary-PLMN, to be applied to the first mobile communication network (PLMN#1), the determination unit is configured to determine the existence of the access control on the basis of the EAB parameter for the R-PLMN. a determination unit configured to determine existence of access control, wherein the first mobile communication network (PLMN#1) is a mobile communication network in the top of a mobile communication network list included in first broadcast information received by the mobile station (MTC-UE), the second mobile communication network (PLMN#2) is a mobile communication network, for which an attachment procedure conducted by the mobile station (MTC-UE) is successful, and responsive to an EAB, extended access barring, parameter for an R-PLMN, registered-public land mobile network, to be applied to the second mobile communication network (PLMN#2) set in second broadcast information received by the mobile station (MTC-UE) in addition to an EAB parameter for a P-PLMN, primary-PLMN, to be applied to the first mobile communication network (PLMN#1), the determination unit is configured to determine the existence of the access control on the basis of the EAB parameter for the R-PLMN.
Floating photovoltaic system with a float (26, 74) and at least one photovoltaic module, where the float (26, 74) has an upper surface, the photovoltaic module is placed in a predetermined position on the upper surface, characterised in that the float (26, 74) is constructed as layer stack, where the layer stack comprises at least an upper layer and a lower layer, where a first surface of the upper layer is attached to a second surface of the lower layer, where the lower layer consists of a water-permeable foam that is water-absorbent, where the upper layer is made of non-permeable foams and is configured to be impermeable to water. where the float (26, 74) has an upper surface, the photovoltaic module is placed in a predetermined position on the upper surface, characterised in that the float (26, 74) is constructed as layer stack, where the layer stack comprises at least an upper layer and a lower layer, where a first surface of the upper layer is attached to a second surface of the lower layer, where the lower layer consists of a water-permeable foam that is water-absorbent, where the upper layer is made of non-permeable foams and is configured to be impermeable to water.