mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a spray-dried detergent particle, said process comprising the steps of: (i) contacting an alkaline earth metal salt with an alkali metal silicate salt in an aqueous mixture comprising a detersive surfactant, wherein the alkaline earth metal salt reacts with the alkali metal silicate salt to form in-situ silicate salt and/or disilicate salt of alkaline earth metal; (ii) adding sodium carbonate and a filler selected from the group consisting of alkali metal chloride, alkaline earth metal carbonate or mixtures thereof to form an aqueous slurry; wherein the aqueous slurry comprises alkali metal silicate, in-situ formed silicate salt and/or disilicate salt of alkaline earth metal, 10 wt.% to 62 wt.% sodium carbonate salt, filler, 0 wt.% phosphate builder, and detersive surfactant; (iii) spray-drying said aqueous slurry to form said spray dried detergent particle. (i) contacting an alkaline earth metal salt with an alkali metal silicate salt in an aqueous mixture comprising a detersive surfactant, wherein the alkaline earth metal salt reacts with the alkali metal silicate salt to form in-situ silicate salt and/or disilicate salt of alkaline earth metal; (ii) adding sodium carbonate and a filler selected from the group consisting of alkali metal chloride, alkaline earth metal carbonate or mixtures thereof to form an aqueous slurry; wherein the aqueous slurry comprises alkali metal silicate, in-situ formed silicate salt and/or disilicate salt of alkaline earth metal, 10 wt.% to 62 wt.% sodium carbonate salt, filler, 0 wt.% phosphate builder, and detersive surfactant; (iii) spray-drying said aqueous slurry to form said spray dried detergent particle.
Installation for the dry transformation of a material structure of semi-finished products, in particular for dry bainitization, having a quenching chamber and having heating and/or cooling means for setting the temperature which prevails in the interior of the quenching chamber , wherein the inner wall of the quenching chamber at least partially comprises a heating and/or cooling surface, and wherein, at least during a quenching process for the semi-finished products, heating and/or cooling means at least approximately impart to the inner wall the temperature intended for the structure transformation, characterized in that provision is made of a fluid circuit, preferably having a pump , for a temperature-controlling heat exchange fluid , wherein the heat exchange fluid is arranged between the inner wall and an outer wall of the quenching chamber .
A mobile device , comprising: one or more processors ; memory coupled to the one or more processors, the memory including one or more modules that are executable by the one or more processors to: receive, within a buffer pool , user plane data for an uplink transmission to a master telecommunications network ; transmit, to a first base station node , a resource allocation request for the uplink transmission of the user plane data; receive, from the first base station node, control plane data associated with the uplink transmission, based at least in part on the resource allocation request; determine a priority for individual data packets of the user plane data; parse the user plane data into one of a first subset of user plane data or a second subset of user plane data based at least in part on the priority; and transmit, simultaneously, the first subset of user plane data to the first base station node and the second subset of user plane data to a second base station node , based at least in part on the control plane data. one or more processors ; memory coupled to the one or more processors, the memory including one or more modules that are executable by the one or more processors to: receive, within a buffer pool , user plane data for an uplink transmission to a master telecommunications network ; transmit, to a first base station node , a resource allocation request for the uplink transmission of the user plane data; receive, from the first base station node, control plane data associated with the uplink transmission, based at least in part on the resource allocation request; determine a priority for individual data packets of the user plane data; parse the user plane data into one of a first subset of user plane data or a second subset of user plane data based at least in part on the priority; and transmit, simultaneously, the first subset of user plane data to the first base station node and the second subset of user plane data to a second base station node , based at least in part on the control plane data. receive, within a buffer pool , user plane data for an uplink transmission to a master telecommunications network ; transmit, to a first base station node , a resource allocation request for the uplink transmission of the user plane data; receive, from the first base station node, control plane data associated with the uplink transmission, based at least in part on the resource allocation request; determine a priority for individual data packets of the user plane data; parse the user plane data into one of a first subset of user plane data or a second subset of user plane data based at least in part on the priority; and transmit, simultaneously, the first subset of user plane data to the first base station node and the second subset of user plane data to a second base station node , based at least in part on the control plane data.
A pump apparatus comprising: a pump ; an electric motor for driving the pump ; an inverter as a speed changing means for the electric motor ; a vibration detector for detecting at least one of a vibration of the pump , a vibration of the electric motor and a vibration of the inverter ; and a controller for controlling the pump , wherein the controller comprises a storage unit for storing a measured vibration value measured by the vibration detector , the storage unit having a storage table (Tb11, Tb12, Tbl3, Tbl4) which is configured to, when the rotational speed of the pump is increased stepwise to a predetermined rotational speed, store the measured vibration value measured at each step;. characterised in that the storage unit is further configured to store a predetermined reference vibration value, and a threshold value (A, B) which serves as a benchmark for an abnormal vibration of the pump , and wherein the controller is configured to calculate a correction amount which is a difference between the measured vibration value and the reference vibration value, stored in the storage table (Tb11, Tb12, Tb13, Tbl4), and to correct the threshold value (A, B) based on the correction amount. a pump ; an electric motor for driving the pump ; an inverter as a speed changing means for the electric motor ; a vibration detector for detecting at least one of a vibration of the pump , a vibration of the electric motor and a vibration of the inverter ; and a controller for controlling the pump , wherein the controller comprises a storage unit for storing a measured vibration value measured by the vibration detector , the storage unit having a storage table (Tb11, Tb12, Tbl3, Tbl4) which is configured to, when the rotational speed of the pump is increased stepwise to a predetermined rotational speed, store the measured vibration value measured at each step;. characterised in that the storage unit is further configured to store a predetermined reference vibration value, and a threshold value (A, B) which serves as a benchmark for an abnormal vibration of the pump , and wherein the controller is configured to calculate a correction amount which is a difference between the measured vibration value and the reference vibration value, stored in the storage table (Tb11, Tb12, Tb13, Tbl4), and to correct the threshold value (A, B) based on the correction amount.
Packaging device having: • a container comprising an end wall , a side wall extending from the end wall , the upper portion of the side wall forming a shoulder , a neck , defining an opening of axis X, extending from the shoulder , and • a dispensing head intended to be mounted on the neck of the container comprising: - a base comprising a transverse wall provided with a dispensing orifice , an external skirt extending from the peripheral edge of the transverse wall and a fastening means , and - a lid hinged to the base about a pivot of axis Y perpendicular to the axis X having a free lower edge which faces the shoulder in the closed position of the dispensing head , characterized in that a depression zone formed in the container and constituting a hollow that opens onto the shoulder and onto the side wall of the container, leaves a part of the free edge of the lid accessible so as to allow the lid to be pivoted by actuation of the part of the free edge that is accessible from the depression zone . • a container comprising an end wall , a side wall extending from the end wall , the upper portion of the side wall forming a shoulder , a neck , defining an opening of axis X, extending from the shoulder , and • a dispensing head intended to be mounted on the neck of the container comprising: - a base comprising a transverse wall provided with a dispensing orifice , an external skirt extending from the peripheral edge of the transverse wall and a fastening means , and - a lid hinged to the base about a pivot of axis Y perpendicular to the axis X having a free lower edge which faces the shoulder in the closed position of the dispensing head , - a base comprising a transverse wall provided with a dispensing orifice , an external skirt extending from the peripheral edge of the transverse wall and a fastening means , and - a lid hinged to the base about a pivot of axis Y perpendicular to the axis X having a free lower edge which faces the shoulder in the closed position of the dispensing head ,
A positioning device for installing a mono-column platform in the seabed of the sea, device is adapted to be arranged at a first floating structure and said mono-column platform is adapted to be arranged extending between the first floating structure and a second floating structure so that a first end portion of the mono-column platform is held by the first floating structure and a second end portion of the mono-column platform is held by the second floating structure , wherein the device comprises - attachment means for holding the first end portion of the mono-column platform at the positioning device , and - a first pivot adapted to enable the first end portion of the mono-column platform to be controllable pivoted while being held at the positioning device by the attachment means so that the first end portion of the mono-column platform is reoriented from a position between the first floating structure and the second floating structure towards the surface of the sea after that the second end portion of the mono-column platform has been released from the second floating structure , wherein the first pivot comprises a pitch rotational axis (R1) in relation to the first floating structure , characterised in that the positioning device further comprises a second pivot comprising a yaw rotational axis (R2) in relation to the first floating structure .and a third pivot comprising a roll rotation axis (R3) in relation to the first floating structure , wherein the positioning device further comprises an arm connected to the second pivot and comprising the first pivot and the third pivot at an end portion of the arm . - attachment means for holding the first end portion of the mono-column platform at the positioning device , and - a first pivot adapted to enable the first end portion of the mono-column platform to be controllable pivoted while being held at the positioning device by the attachment means so that the first end portion of the mono-column platform is reoriented from a position between the first floating structure and the second floating structure towards the surface of the sea after that the second end portion of the mono-column platform has been released from the second floating structure , wherein the first pivot comprises a pitch rotational axis (R1) in relation to the first floating structure ,
A support intended to receive an individual weapon on board a vehicle , said support including at least one rigid frame which can be fixed to a partition of the vehicle, said support being characterised in that the rigid frame includes a vertical bar positioned at a rear part of the support in order to be able to be fixed to the partition and on which a resilient cellular structure is fixed including at least two panels each including at least one so-called inner face which are opposite one another, between which inner faces the weapon can be slid and held by bringing the panels closer to each other, which is ensured by a holding means , the cellular structure thus being able to bend relative to the vertical bar of the frame .
A fingerprint sensing device, comprising: a substrate ; a plurality of pixels arranged in a grid of rows and columns, each pixel having an active thermal sensing element therein; a first metal layer forming first addressing lines for addressing the active thermal sensing elements; a second metal layer above the first metal layer and forming second addressing lines for addressing the active thermal sensing elements; an electrically conductive electrostatic discharge (ESD) protection layer above the plurality of pixels ; and a first insulating layer disposed between the ESD protection layer and the active thermal sensing elements, wherein the ESD protection layer is electrically connected to a bias potential, characterized in that the ESD protection layer is disposed in a pattern such that it partially overlaps each pixel , the ESD protection layer at least partially overlapping the active thermal sensing element of each pixel , wherein the electrically conductive ESD protection layer is disposed in the same plane with the second metal layer . a substrate ; a plurality of pixels arranged in a grid of rows and columns, each pixel having an active thermal sensing element therein; a first metal layer forming first addressing lines for addressing the active thermal sensing elements; a second metal layer above the first metal layer and forming second addressing lines for addressing the active thermal sensing elements; an electrically conductive electrostatic discharge (ESD) protection layer above the plurality of pixels ; and a first insulating layer disposed between the ESD protection layer and the active thermal sensing elements, wherein the ESD protection layer is electrically connected to a bias potential, characterized in that the ESD protection layer is disposed in a pattern such that it partially overlaps each pixel , the ESD protection layer at least partially overlapping the active thermal sensing element of each pixel , wherein the electrically conductive ESD protection layer is disposed in the same plane with the second metal layer .
A measurement arrangement for determining a constituent substance and/or a quality parameter of water or waste water, comprising a reaction module for thermally decomposing a sample of the water or waste water, means for delivering the reaction product to a detector in a carrier gas flow, the detector and an evaluation unit for evaluating a detector signal for deriving a value of the constituent substance or quality parameter, wherein the reaction module is an elongated vessel of vertical orientation during operation having a resistance heating or infrared heating, and has a head section into which the sample is introduced, a reaction zone, where the thermal decomposition is performed, as well as a foot section, from which the reaction product is output in the carrier gas flow, wherein the reaction module, the resistance heating or infrared heating, and means for the supply of samples and carrier gas are configured such that during the operation of the measurement arrangement an outer head temperature is T H ≤ 80°C, and an outer foot temperature is T F ≤ 150°C at a maximum temperature in the reaction zone of T MAX ≥ 1150°C, wherein the reaction module includes in a two-zone configuration a first, upper heating zone configured to reach a maximum temperature of 800°C, and a second, lower heating zone configured to reach a maximum temperature of 1250°C, characterized in that the first and the second heating zones are heated via heating modules of a high-temperature resistant special alloy and being arranged in a hollow-cylindrical manner around the corresponding portion of the reaction module, and that the heating modules include microporous ceramic fiber insulations of different thickness, and also the foot portion , an area between the heating zones and the head portion below an aluminum cover are ceramic fiber-insulated, and the entire reaction module additionally is coated with a macroporous outer insulation .
A medical system comprising: a plurality of electrodes configured to sense a cardiac electrogram (EGM) signal of a patient; and processing circuitry configured to: detect a premature ventricular contraction (PVC) within the cardiac EGM signal; determine whether PVC storage criteria is met; in response to a determination that the PVC storage criteria is met, store a portion of the cardiac EGM signal associated with the PVC; and in response to a determination that the PVC storage criteria is not met, eschew storing the portion of the cardiac EGM signal associated with the PVC. a plurality of electrodes configured to sense a cardiac electrogram (EGM) signal of a patient; and processing circuitry configured to: detect a premature ventricular contraction (PVC) within the cardiac EGM signal; determine whether PVC storage criteria is met; in response to a determination that the PVC storage criteria is met, store a portion of the cardiac EGM signal associated with the PVC; and in response to a determination that the PVC storage criteria is not met, eschew storing the portion of the cardiac EGM signal associated with the PVC. detect a premature ventricular contraction (PVC) within the cardiac EGM signal; determine whether PVC storage criteria is met; in response to a determination that the PVC storage criteria is met, store a portion of the cardiac EGM signal associated with the PVC; and in response to a determination that the PVC storage criteria is not met, eschew storing the portion of the cardiac EGM signal associated with the PVC.
An apparatus , comprising: an optical resonator comprising a waveguide, including Brillouin gain material, on a substrate ; wherein the optical resonator is configured such that an optical signal can be coupled into it; wherein the optical resonator has resonant frequencies substantially equal to a frequency of an optical signal coupled into the optical resonator and to frequencies of at least two Stokes signals; wherein a Bragg grating is formed with periodic notches that are made on parallel sides of the waveguide, which parallel sides are perpendicular to the substrate; and wherein the Bragg grating has a Bragg frequency substantially equal to the center frequency of an Nth order Stokes signal generated by the Brillouin gain material. an optical resonator comprising a waveguide, including Brillouin gain material, on a substrate ; wherein the optical resonator is configured such that an optical signal can be coupled into it; wherein the optical resonator has resonant frequencies substantially equal to a frequency of an optical signal coupled into the optical resonator and to frequencies of at least two Stokes signals; wherein a Bragg grating is formed with periodic notches that are made on parallel sides of the waveguide, which parallel sides are perpendicular to the substrate; and wherein the Bragg grating has a Bragg frequency substantially equal to the center frequency of an Nth order Stokes signal generated by the Brillouin gain material.
A video decoding method, characterized by comprising: predicting (1501; 1601), when a multi-reference line prediction mode is enabled for a current block, the current block based on a target reference line when the current block is predicted according to the multi-reference line prediction mode, wherein the target reference line is determined based on reference line indication information; wherein the reference line indication information is configured to indicate index information of the target reference line used in predicting the current block based on the multi-reference line prediction mode, and the target reference line is one line selected from candidate reference lines, wherein the number of the candidate reference lines corresponding to the multi-reference line prediction mode is 3, and three lines and three columns closest to a boundary of the current block are used as the candidate reference lines; and the reference line indication information occupies at most 2 bits, and the 2 bits are decoded using a first context model and a second context model, wherein a first bit of the reference line indication information is decoded based on the first context model, a second bit of the reference line indication information is decoded based on the second context model when decoding of the second bit of the reference line indication information is required, and the first context model is different from the second context model. predicting (1501; 1601), when a multi-reference line prediction mode is enabled for a current block, the current block based on a target reference line when the current block is predicted according to the multi-reference line prediction mode, wherein the target reference line is determined based on reference line indication information; wherein the reference line indication information is configured to indicate index information of the target reference line used in predicting the current block based on the multi-reference line prediction mode, and the target reference line is one line selected from candidate reference lines, wherein the number of the candidate reference lines corresponding to the multi-reference line prediction mode is 3, and three lines and three columns closest to a boundary of the current block are used as the candidate reference lines; and the reference line indication information occupies at most 2 bits, and the 2 bits are decoded using a first context model and a second context model, wherein a first bit of the reference line indication information is decoded based on the first context model, a second bit of the reference line indication information is decoded based on the second context model when decoding of the second bit of the reference line indication information is required, and the first context model is different from the second context model.
A binder for producing an inorganic sintered body comprising a graft copolymer, the graft copolymer having a unit including polyvinyl butyral and a unit including a poly(meth)acrylic compound, the polyvinyl butyral having a degree of polymerization of 800 to 5,000, a hydroxy group content of 20 to 40 mol%, and a degree of butyralization of 60 to 80 mol%, the unit including a poly(meth)acrylic compound having a glass transition temperature of -65°C or higher and lower than 0°C, the difference between the glass transition temperature of the unit including a poly(meth)acrylic compound and a glass transition temperature of the unit including a polyvinyl butyral being 60°C to 140°C, wherein the glass transition temperatures are measured by subjecting the graft copolymer to differential scanning calorimetry using a DSC6200 (available from SII) at a rate of temperature rise of 10 °C/min and wherein out of two measured glass transition temperatures, the glass transition temperature not derived from a polyvinyl acetal unit within a range of 50°C to 70°C is determined to be the glass transition temperature of the poly(meth)acrylic compound unit.