mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising porous inorganic oxide particles containing a biologically active ingredient in a liquid material, wherein the biologically active ingredient in a liquid material is a liquid lipid drug or takes the form of a solution or dispersion of the biologically active ingredient in a non-volatile solvent having a boiling point of above 150°C, wherein the inorganic oxide particles possess: (a) an oil adsorption of 100 to 500 ml/100 g, as determined according to ASTM D281; (b) pores having a pore volume, as measured by nitrogen porosimetry, of 0.5 cm 3 /g or greater; wherein said inorganic oxide particles remain free flowing at a weight ratio of liquid material to inorganic oxide particles of at least 1.5:1; wherein the free flowing inorganic oxide particles having the above weight ratio of the biologically active ingredient in a liquid material form a powder having a Carr index ≤ 25, calculated by the formula C = 100 x (1-ρ b /ρ t ), where ρ b is the freely settled bulk density of a powder and ρ t is the tapped bulk density of the powder, and wherein the porous inorganic oxide particles containing a biologically active ingredient in a liquid material have a bulk density of 550 to 650 g/1. (a) an oil adsorption of 100 to 500 ml/100 g, as determined according to ASTM D281; (b) pores having a pore volume, as measured by nitrogen porosimetry, of 0.5 cm 3 /g or greater; wherein said inorganic oxide particles remain free flowing at a weight ratio of liquid material to inorganic oxide particles of at least 1.5:1; wherein the free flowing inorganic oxide particles having the above weight ratio of the biologically active ingredient in a liquid material form a powder having a Carr index ≤ 25, calculated by the formula C = 100 x (1-ρ b /ρ t ), where ρ b is the freely settled bulk density of a powder and ρ t is the tapped bulk density of the powder, and wherein the porous inorganic oxide particles containing a biologically active ingredient in a liquid material have a bulk density of 550 to 650 g/1.
A wearable device comprising: a microphone ; a display ; and a controller that: analyzes audio information picked up by the microphone ; detects if a predetermined verbal address phrase is included in the audio information; identifies a direction from which audio corresponding to the predetermined verbal address phrase is emitted; and controls the display to display the indication at a position on the display that corresponds to the identified emitted direction, wherein for cases in which there are more than one emitted directions that correspond to the same position on the display , the controller controls the display to either display, on the same position, a different mark on the display depending on the identified emitted direction, or display, on the same position, a same mark on the display in a different state depending on the identified emitted direction. a microphone ; a display ; and analyzes audio information picked up by the microphone ; detects if a predetermined verbal address phrase is included in the audio information; identifies a direction from which audio corresponding to the predetermined verbal address phrase is emitted; and controls the display to display the indication at a position on the display that corresponds to the identified emitted direction, wherein for cases in which there are more than one emitted directions that correspond to the same position on the display , the controller controls the display to either display, on the same position, a different mark on the display depending on the identified emitted direction, or display, on the same position, a same mark on the display in a different state depending on the identified emitted direction.
A channel state information feedback method, comprising: • generating, by a transmit-end device, codebook indication information of K transport layers, wherein K is an integer greater than or equal to 2, the codebook indication information comprising: L pieces of beam information used by the K transport layers and indication information used to indicate beam information associated with each of the K transport layers, and L is an integer greater than or equal to 2, and a quantity of pieces of beam information associated with at least one of the K transport layers is less than L (step 200), ∘ wherein in m transport layers in the K transport layers, a quantity of pieces of beam information associated with each layer is greater than or equal to 2, and m is an integer greater than or equal to 1 and less than K, and in K-m transport layers in the K transport layers other than the m transport layers, a quantity of pieces of beam information associated with each layer is equal to 1, ∘ wherein for one of the K-m transport layers, a polarization phase difference for constructing a precoding vector of the transport layer is associated with a beam superposition coefficient of one of the m transport layers; and • sending, by the transmit-end device, the codebook indication information (step 201). • generating, by a transmit-end device, codebook indication information of K transport layers, wherein K is an integer greater than or equal to 2, the codebook indication information comprising: L pieces of beam information used by the K transport layers and indication information used to indicate beam information associated with each of the K transport layers, and L is an integer greater than or equal to 2, and a quantity of pieces of beam information associated with at least one of the K transport layers is less than L (step 200), ∘ wherein in m transport layers in the K transport layers, a quantity of pieces of beam information associated with each layer is greater than or equal to 2, and m is an integer greater than or equal to 1 and less than K, and in K-m transport layers in the K transport layers other than the m transport layers, a quantity of pieces of beam information associated with each layer is equal to 1, ∘ wherein for one of the K-m transport layers, a polarization phase difference for constructing a precoding vector of the transport layer is associated with a beam superposition coefficient of one of the m transport layers; and ∘ wherein in m transport layers in the K transport layers, a quantity of pieces of beam information associated with each layer is greater than or equal to 2, and m is an integer greater than or equal to 1 and less than K, and in K-m transport layers in the K transport layers other than the m transport layers, a quantity of pieces of beam information associated with each layer is equal to 1, ∘ wherein for one of the K-m transport layers, a polarization phase difference for constructing a precoding vector of the transport layer is associated with a beam superposition coefficient of one of the m transport layers; and • sending, by the transmit-end device, the codebook indication information (step 201).
A steering control device configured to control a reaction motor that generates a steering reaction force applied to a steering wheel of which power transmission to and from turning wheels is cut off, the steering control device comprising: a first processor configured to change a virtual operation range of the steering wheel according to a steering state or a vehicle state by controlling the reaction motor; and a second processor configured to change a degree of change of the virtual operation range of the steering wheel according to the steering state or the vehicle state when an operation position of the steering wheel reaches a position in a vicinity of a limit position of the virtual operation range, characterized in that the first processor is configured to calculate a limit value (θend) of the virtual operation range of the steering wheel by dividing a rotation angle of a shaft which rotates with a turning operation of the turning wheels by a speed increasing ratio (v) between the steering wheel and the shaft which is calculated based on a vehicle speed (V), and wherein the second processor is configured to limit a change per unit time of the speed increasing ratio which is used to calculate the limit value (θend) when the operation position of the steering wheel reaches the position in the vicinity of the limit position of the virtual operation range. a first processor configured to change a virtual operation range of the steering wheel according to a steering state or a vehicle state by controlling the reaction motor; and a second processor configured to change a degree of change of the virtual operation range of the steering wheel according to the steering state or the vehicle state when an operation position of the steering wheel reaches a position in a vicinity of a limit position of the virtual operation range, characterized in that the first processor is configured to calculate a limit value (θend) of the virtual operation range of the steering wheel by dividing a rotation angle of a shaft which rotates with a turning operation of the turning wheels by a speed increasing ratio (v) between the steering wheel and the shaft which is calculated based on a vehicle speed (V), and wherein the second processor is configured to limit a change per unit time of the speed increasing ratio which is used to calculate the limit value (θend) when the operation position of the steering wheel reaches the position in the vicinity of the limit position of the virtual operation range.
Trailed sprayer for being towed by a tractor comprising at least two wheels , characterised in that it comprises an assistance system including: - at least one motor coupled to the wheels of the trailed sprayer , - coupling means for coupling and uncoupling the motor with the wheels , and - a control device controlling the motor and coupling means . - at least one motor coupled to the wheels of the trailed sprayer , - coupling means for coupling and uncoupling the motor with the wheels , and - a control device controlling the motor and coupling means .
Wearing-part holder , where a tip of the wearing-part holder comprises a first section with a first stop surface , which is arranged on the front portion of the tip of the wearing-part holder , a first contact surface and a second contact surface symmetrically arranged from a centre line L-L of the wearing-part holder , from the first stop surface to a second section with a second stop surface and a third stop surface , where the second stop surface and the third stop surface also are symmetrically arranged on each side of the centre line L-L, from the first contact surface and the second contact surface to a third section with a third contact surface and a fourth contact surface , where the third contact surface and the fourth contact surface also are symmetrically arranged on each side of the centre line L-L, from the second stop surface and the third stop surface , wherein a fifth contact surface passes the first , second , and third sections in the longitudinal direction of the wearing-part holder characterized in that the first contact surface , the second contact surface , the second stop surface , the third stop surface , a fourth stop surface , the third contact surface and the fourth contact surface are arranged on the opposite side of the wearing-part holder relative to the fifth contact surface .
A floatable fish tank comprising: a hull having a lower part with side and bottom walls , the lower part forming an enclosure for fish; a deck arranged at an upper part of the hull ; a central column fixed within the hull , wherein the central column is closed at its lower end section and extends from the bottom wall to the deck , characterized in that the central column comprises at least one working floor (19a-c) arranged therein; and the floatable fish tank comprises operating equipment arranged on the at least one working floor (19a-c), the operating equipment comprising at least one of: a feed storage, a feed distribution system, a pump, a power generator, office utilities, a fluid conditioning system and a waste treatment system. a hull having a lower part with side and bottom walls , the lower part forming an enclosure for fish; a deck arranged at an upper part of the hull ; a central column fixed within the hull , wherein the central column is closed at its lower end section and extends from the bottom wall to the deck , characterized in that the central column comprises at least one working floor (19a-c) arranged therein; and the floatable fish tank comprises operating equipment arranged on the at least one working floor (19a-c), the operating equipment comprising at least one of: a feed storage, a feed distribution system, a pump, a power generator, office utilities, a fluid conditioning system and a waste treatment system.
A transmit end device, wherein the transmit end device comprises N antennas, and N≥2; and the transmit end device comprises: a mapping module , configured to perform bit mapping processing on a first part of bits of a first data bit group, to generate a first modulation symbol, wherein the first data bit group comprises at least two bits, and the first part of bits comprises at least one bit, wherein the bit mapping processing is to map bits by using a multidimensional complex number vector code word and wherein the first modulation symbol is one of at least two modulation symbols, the at least two modulation symbols comprising at least a non-zero modulation symbol and at least one zero modulation symbol; a first determining module , configured to determine a first precoding matrix from multiple preset precoding matrices according to a second part of bits of the first data bit group, wherein the first precoding matrix is corresponding to at least two antennas of the N antennas, and the second part of bits is a bit of the first data bit group other than the first part of bits; a precoding module , configured to perform, according to the first precoding matrix determined by the first determining module, precoding processing on the first modulation symbol obtained by the mapping module, to obtain a first modulation symbol matrix; and a transmission module , configured to transmit, to a receive end device by using the at least two antennas, the first modulation symbol matrix obtained after the precoding module performs precoding processing. a mapping module , configured to perform bit mapping processing on a first part of bits of a first data bit group, to generate a first modulation symbol, wherein the first data bit group comprises at least two bits, and the first part of bits comprises at least one bit, wherein the bit mapping processing is to map bits by using a multidimensional complex number vector code word and wherein the first modulation symbol is one of at least two modulation symbols, the at least two modulation symbols comprising at least a non-zero modulation symbol and at least one zero modulation symbol; a first determining module , configured to determine a first precoding matrix from multiple preset precoding matrices according to a second part of bits of the first data bit group, wherein the first precoding matrix is corresponding to at least two antennas of the N antennas, and the second part of bits is a bit of the first data bit group other than the first part of bits; a precoding module , configured to perform, according to the first precoding matrix determined by the first determining module, precoding processing on the first modulation symbol obtained by the mapping module, to obtain a first modulation symbol matrix; and a transmission module , configured to transmit, to a receive end device by using the at least two antennas, the first modulation symbol matrix obtained after the precoding module performs precoding processing.
A power control circuit for powering power rails of an integrated circuit, the power control circuit comprising: a main power regulator configured to provide power to the power rails, based upon a control signal from a controller or control logic of the main power regulator;and a reset circuit configured to detect a supply voltage of power supplied to the main power regulator and to: in response to the detected supply voltage being below an operational voltage level, control the main power regulator to ignore the control signal by controlling a clamp to couple received power to the power rails; and in response to the detected supply voltage reaching the operational voltage level, control the main power regulator to provide power to the power rails based on the control signal; the power control circuit characterized by further comprising: a low-power standby power regulator configured to provide power to the main power regulator and the power rails and further configured to output an ignore signal to the main power regulator to ignore the control signal until the low-power standby power regulator provides sufficient power. a main power regulator configured to provide power to the power rails, based upon a control signal from a controller or control logic of the main power regulator;and a reset circuit configured to detect a supply voltage of power supplied to the main power regulator and to: in response to the detected supply voltage being below an operational voltage level, control the main power regulator to ignore the control signal by controlling a clamp to couple received power to the power rails; and in response to the detected supply voltage reaching the operational voltage level, control the main power regulator to provide power to the power rails based on the control signal; in response to the detected supply voltage being below an operational voltage level, control the main power regulator to ignore the control signal by controlling a clamp to couple received power to the power rails; and in response to the detected supply voltage reaching the operational voltage level, control the main power regulator to provide power to the power rails based on the control signal; the power control circuit characterized by further comprising: a low-power standby power regulator configured to provide power to the main power regulator and the power rails and further configured to output an ignore signal to the main power regulator to ignore the control signal until the low-power standby power regulator provides sufficient power.
A method comprising: receiving , at an edge network device, information describing a rule to be applied to a traffic stream received at the edge network device; receiving the traffic stream at the edge network device; applying a schema to the received traffic stream, wherein applying the schema to the received traffic stream comprises decoding content of binary values of the received traffic stream, and indexing the decoded content at the edge network device; determining that a rule triggering condition has been met by the received traffic stream, wherein determining that the rule triggering condition has been met comprises executing a query against the decoded content, the query providing an outcome indicating if the rule triggering condition has been met; and applying the rule to the traffic stream, at the edge network device, in response to having met the rule triggering condition, wherein at least one of determining that the rule triggering condition has been met or applying the rule to the traffic stream is performed based on the applied schema. receiving , at an edge network device, information describing a rule to be applied to a traffic stream received at the edge network device; receiving the traffic stream at the edge network device; applying a schema to the received traffic stream, wherein applying the schema to the received traffic stream comprises decoding content of binary values of the received traffic stream, and indexing the decoded content at the edge network device; determining that a rule triggering condition has been met by the received traffic stream, wherein determining that the rule triggering condition has been met comprises executing a query against the decoded content, the query providing an outcome indicating if the rule triggering condition has been met; and applying the rule to the traffic stream, at the edge network device, in response to having met the rule triggering condition, wherein at least one of determining that the rule triggering condition has been met or applying the rule to the traffic stream is performed based on the applied schema.
A method of producing fatty acid alkyl ester from an organic oil source containing at least one free fatty acid, wherein the vegetable and/or animal waste oil has an acid number of at least 30 mg KOH/g and wherein the method comprises the steps of a) reacting the oil source with glycerol at a temperature, which is at least 110°C and does not exceed 180°C during the reaction, in the presence of a catalyst comprising at least methane sulfonic acid or the homo anhydride thereof; and b) acidic transesterification at a temperature, which is at least 110°C and does not exceed 160°C during the reaction of the reaction product from step a) with an alkanol; and c) isolating the fatty acid alkyl ester from the reaction product of step b). a) reacting the oil source with glycerol at a temperature, which is at least 110°C and does not exceed 180°C during the reaction, in the presence of a catalyst comprising at least methane sulfonic acid or the homo anhydride thereof; and b) acidic transesterification at a temperature, which is at least 110°C and does not exceed 160°C during the reaction of the reaction product from step a) with an alkanol; and c) isolating the fatty acid alkyl ester from the reaction product of step b).
Thermally insulating component for inserting into joints between load-bearing building parts, for example between a building ceiling and a balcony slab, with an insulating body which contains reinforcing members , wherein the insulating body has single-part bearings at spacings in relation to its longitudinal direction for absorbing compressive and shear forces, wherein the bearings extend substantially in a transverse direction which runs transversely with respect to the longitudinal direction and in the direction of the load-bearing building parts , wherein at least one bearing has side surfaces which extend substantially in the transverse direction , and wherein the side surfaces are delimited in the transverse direction by a first end side of the bearing and a second end side of the bearing , wherein at least one material-reducing depression is arranged in at least one of the side surfaces , wherein the depression is delimited by a continuously peripheral edge which projects with respect to the depression , characterized in that the bearing has an upper side which extends in the transverse direction and a lower side which extends in the transverse direction , in that the upper side has a maximum width (bmo) which is measured in the longitudinal direction , in that the lower side has a maximum width (bmu) which is measured in the longitudinal direction , and in that the maximum width (bmo) of the upper side is smaller than the maximum width (bmu) of the lower side .