mhurhangee/patent-ind-claim-en huggingface dataset:
Measuring arrangement designed to determine the flow velocity of at least a liquid phase (φ 2 ) and/or a gas phase (φ 1 ) of a steam or of a fluid consisting of a liquid phase and a gaseous phase or a supercritical fluid, wherein the measuring arrangement comprises a measuring tube on or in which at least a sensor element of at least a first flowmeter is arranged for the purpose of determining the liquid phase (φ 2 ) or the gas phase (φ 1 ), wherein the measuring tube has at least one inflow section and one outflow section , wherein a central section is arranged between these two zones whose measuring tube cross-section has a larger surface than the surface of the measuring tube cross-section of the outflow section or of the inflow section , wherein the measuring tube cross-section increases in a continuous manner towards the central section in a first transition zone between the inflow section and the central section and in a second transition zone between the outflow section and the central section, wherein the sensor element is arranged in the central section , characterized in that the central section of the measuring tube has a channel for the collection of the liquid phase (φ 2 ). wherein the measuring arrangement comprises a measuring tube on or in which at least a sensor element of at least a first flowmeter is arranged for the purpose of determining the liquid phase (φ 2 ) or the gas phase (φ 1 ), wherein the measuring tube has at least one inflow section and one outflow section , wherein a central section is arranged between these two zones whose measuring tube cross-section has a larger surface than the surface of the measuring tube cross-section of the outflow section or of the inflow section , wherein the measuring tube cross-section increases in a continuous manner towards the central section in a first transition zone between the inflow section and the central section and in a second transition zone between the outflow section and the central section, wherein the sensor element is arranged in the central section , characterized in that the central section of the measuring tube has a channel for the collection of the liquid phase (φ 2 ).
A beam collimating lens for a light-emitting device for fast-axis collimation, the beam collimating lens comprising at least one biconvex collimating element and being made of quartz glass, characterized in in that the biconvex collimating element has an acylindrical shape on the exit side and a cylindrical shape on the entry side .
An image processing apparatus comprising: a first setting means configured to set cooperative processing including first processing and second processing that cooperate with each other in a server that provides a service that determines the cooperative processing; a first communication controlling means configured to establish a first communication path in order for the first setting means to communicate with the server ; a command receiving means configured to receive a command to execute the first processing; a second communication controlling means configured to establish a second communication path different from the first communication path in order to receive the command; a monitoring means configured to monitor a state of the second communication path; an alternative processing generating means configured to determine that the command cannot be received in a case where the monitoring means detects a state in which communication through the second communication path is not possible, generate alternative processing in place of the first processing in a case where it is detected that the command cannot be received after the cooperative processing has been set; and an alternative processing executing means configured to execute the alternative processing. a first setting means configured to set cooperative processing including first processing and second processing that cooperate with each other in a server that provides a service that determines the cooperative processing; a first communication controlling means configured to establish a first communication path in order for the first setting means to communicate with the server ; a command receiving means configured to receive a command to execute the first processing; a second communication controlling means configured to establish a second communication path different from the first communication path in order to receive the command; a monitoring means configured to monitor a state of the second communication path; an alternative processing generating means configured to determine that the command cannot be received in a case where the monitoring means detects a state in which communication through the second communication path is not possible, generate alternative processing in place of the first processing in a case where it is detected that the command cannot be received after the cooperative processing has been set; and determine that the command cannot be received in a case where the monitoring means detects a state in which communication through the second communication path is not possible, generate alternative processing in place of the first processing in a case where it is detected that the command cannot be received after the cooperative processing has been set; and an alternative processing executing means configured to execute the alternative processing.
A molding that is attached to a front side edge portion of a side window of a vehicle and is brought into abutment with only a bottom surface and a side surface of the side window , the molding being formed with a door lip for covering an inclined portion of a body opening portion between a glass attachment surface of the body of the vehicle, to which the side window is attached, and a flat portion of the body opening portion , to which a door of the vehicle is attached, characterized in that a tip portion of the door lip of the molding is bent towards the inclined portion of the body opening portion to form a body abutment portion , and a tip portion of the body abutment portion of the molding is bent in a direction in which the side window is positioned, to make a bent portion of the body abutment portion.
A method of calibrating transmitter units (224a-224n) and receiver units (234a-234n) at a wireless entity in a multiple-input multiple-output, MIMO, communication system having a plurality of antennas, each antenna associated with one of the transmitter units and with one of the receiver units, the method comprising: performing a first calibration to obtain a gain of each of a plurality of transmitter units at the wireless entity and to obtain a gain of each of a plurality of receiver units at the wireless entity, wherein the first calibration is performed based on a plurality of test signals sent via the plurality of transmitter units and received via the plurality of receiver units; deriving at least one correction matrix based on gains of the plurality of transmitter units and gains of the plurality of receiver units, wherein the at least one correction matrix is used to account for responses of the plurality of transmitter units and responses of the plurality of receiver units; performing a second calibration to determine at least one updated correction matrix for the wireless entity, wherein the second calibration is performed based on a channel response estimate for a downlink and a channel response estimate for an uplink in the MIMO system obtained based on a downlink MIMO pilot and an uplink MIMO pilot; and performing a third calibration to determine errors in the at least one updated correction matrix, wherein the third calibration is performed based on two different pilots, comprising an uplink steered reference, exchanged with the wireless entity; and updating the at least one updated correction matrix based on the determined errors in the at least one updated correction matrix. performing a first calibration to obtain a gain of each of a plurality of transmitter units at the wireless entity and to obtain a gain of each of a plurality of receiver units at the wireless entity, wherein the first calibration is performed based on a plurality of test signals sent via the plurality of transmitter units and received via the plurality of receiver units; deriving at least one correction matrix based on gains of the plurality of transmitter units and gains of the plurality of receiver units, wherein the at least one correction matrix is used to account for responses of the plurality of transmitter units and responses of the plurality of receiver units; performing a second calibration to determine at least one updated correction matrix for the wireless entity, wherein the second calibration is performed based on a channel response estimate for a downlink and a channel response estimate for an uplink in the MIMO system obtained based on a downlink MIMO pilot and an uplink MIMO pilot; and performing a third calibration to determine errors in the at least one updated correction matrix, wherein the third calibration is performed based on two different pilots, comprising an uplink steered reference, exchanged with the wireless entity; and updating the at least one updated correction matrix based on the determined errors in the at least one updated correction matrix.
A method of supporting fast sub-cell switching by a sub-cell included in a macro coverage comprising a plurality of sub-cells which are discriminated based on virtual cell identifiers (VCIDs) or scrambling IDs in a wireless communication system, the method comprising: receiving multiple pieces of feedback information on multiple sub-cells from a User Equipment, UE, , the feedback information including a channel quality indicator, CQI, a precoding matrix index, PMI, a rank indicator, RI; extracting the channel quality indicator from the multiple pieces of received feedback information, respectively; comparing values of the extracted channel quality indicators; and determining, based on whether a channel quality indicator having a largest value among the extracted channel quality indicators is a channel quality indicator of a serving sub-cell of the UE according to a result of the comparison, whether to perform fast sub-cell switching of the UE, wherein when the channel quality indicator having the largest value among the extracted channel quality indicators is determined to be the channel quality indicator of the serving sub-cell of the UE, maintaining the serving sub-cell, when the channel quality indicator having the largest value among the extracted channel quality indicators is determined not to be the channel quality indicator of the serving sub-cell of the UE, performing sub-cell switching of the UE to a sub-cell having the channel quality indicator having the largest value. receiving multiple pieces of feedback information on multiple sub-cells from a User Equipment, UE, , the feedback information including a channel quality indicator, CQI, a precoding matrix index, PMI, a rank indicator, RI; extracting the channel quality indicator from the multiple pieces of received feedback information, respectively; comparing values of the extracted channel quality indicators; and determining, based on whether a channel quality indicator having a largest value among the extracted channel quality indicators is a channel quality indicator of a serving sub-cell of the UE according to a result of the comparison, whether to perform fast sub-cell switching of the UE, wherein when the channel quality indicator having the largest value among the extracted channel quality indicators is determined to be the channel quality indicator of the serving sub-cell of the UE, maintaining the serving sub-cell, when the channel quality indicator having the largest value among the extracted channel quality indicators is determined not to be the channel quality indicator of the serving sub-cell of the UE, performing sub-cell switching of the UE to a sub-cell having the channel quality indicator having the largest value.
Polynucleotide coding for a variant of the cytidine deaminase protein chosen from the group consisting of: SEQ.ID.NO. 2 SEQ.ID.NO.3 SEQ.ID.NO.4 SEQ.ID.NO. 2 SEQ.ID.NO.3 SEQ.ID.NO.4
A piece of furniture configured for modular assembly, in particular a piece of seating furniture, such as a bank , a chair, a couch, an armchair or the like, the piece of furniture comprising a plurality of strip-like seat portion elements which form a seat portion and which are disposed in a row and essentially parallel to each other in a first plane E1, the seat portion elements each resting on at least two strip-like leg elements which form a substantially right angle with the seat portion elements, the piece of furniture further comprising a plurality of strip-like side portion elements forming a right side portion and a left side portion , the lowest side portion element of each side portion being disposed on the respective end portions of the seat portion elements, and all side portion elements of each side portion being disposed essentially parallel to each other in a second plane E2 and E2', respectively, which forms an essentially right angle with the first plane E1, the side portion elements of each side portion being at least partly connected to each other via plug connections, the piece of furniture further comprising a plurality of strip-like backrest portion elements forming a backrest portion and being disposed essentially parallel to each other in a third plane E3, which forms an essentially right angle with each of the first plane E1 and the second plane E2, the backrest portion elements being at least partly connected to each other and to side portion elements via plug connections.
An apparatus, comprising: an analog component having: first electrodes electrically connected with respective first electrode signal lines , said first electrode signal lines being configured such that an analog component input A i may be provided to the analog component via said first electrode signal lines , said analog component input A i being a sequence of binary values, or bits; a liquid crystal cell over the first electrodes ; one or more second electrodes over the liquid crystal cell and opposite the first electrodes ; an input waveguide configured to be input a constant optical signal as an optical input and communicate the optical input into the liquid crystal cell ; and a sensor configured to provide a sensor output based on sensing an optical output of the liquid crystal cell . first electrodes electrically connected with respective first electrode signal lines , said first electrode signal lines being configured such that an analog component input A i may be provided to the analog component via said first electrode signal lines , said analog component input A i being a sequence of binary values, or bits; a liquid crystal cell over the first electrodes ; one or more second electrodes over the liquid crystal cell and opposite the first electrodes ; an input waveguide configured to be input a constant optical signal as an optical input and communicate the optical input into the liquid crystal cell ; and a sensor configured to provide a sensor output based on sensing an optical output of the liquid crystal cell .
A method for reconstructing a data block of size N, wherein the data block was encoded using an erasure code to generate a set of N s systematic symbol vectors and a set of N p parity projection vectors from a mapping of the data block onto a two-dimensional convex support, wherein the systematic symbol vectors correspond to symbols of the data block mapped onto the support, and the parity projection vectors respectively correspond to N p projections of symbols of the data block mapped onto the support using respective encoding projection directions, the data block being reconstructed from a set of N s input vectors using the set of N p parity projection vectors, wherein the N s input vectors respectively correspond to the N s systematic symbol vectors with at least an erasure, the method comprising: • for each input vector that contains at least an erasure, updating the value of each erased symbol to a predetermined value; • mapping the N s input vectors with updated values onto the two-dimensional convex support, • generating a reconstruction projection vector from the mapping of the N s input vectors with updated values onto the two-dimensional convex support using an encoding projection direction; • generating an updated parity projection vector from the reconstruction projection vector and the parity projection vector generated using said encoding projection direction. • for each input vector that contains at least an erasure, updating the value of each erased symbol to a predetermined value; • mapping the N s input vectors with updated values onto the two-dimensional convex support, • generating a reconstruction projection vector from the mapping of the N s input vectors with updated values onto the two-dimensional convex support using an encoding projection direction; • generating an updated parity projection vector from the reconstruction projection vector and the parity projection vector generated using said encoding projection direction.
A multi-layer backsheet for a photovoltaic module comprising: a first layer having a reflectance of more than 25% of at least one light with a wavelength somewhere in the range from 1000 nm to 2100 nm, and a reflectance of less than 35% of all light with a wavelength from 380 nm to 750 nm; and a second layer having a reflectance of more than 50% of all light with a wavelength from 380 nm to 2000 nm; wherein said first layer and said second layer are adjacent to each other.
Method of determining a position of a rotatable element of a timepiece, the method comprising: - arranging a permanent magnet to rotate with the rotatable element about a rotation axis of the rotatable element , - using a three-axis magnetic field sensor to measure a magnitude and an orientation of an incident magnetic field along said three axis and detect changes in said magnetic field magnitude and orientation, due to the rotation of the magnetic field of the permanent magnet , along said three axis as the rotatable element rotates, in order to obtain a succession of magnitude/orientation data points forming a three-dimensional signature path after a full rotation of the rotatable element - projecting the three-dimensional signature path onto a plane orthogonal to the rotation axis so as to form a circular two-dimensional signature path - deducing the angular orientation of the rotatable element from two-dimensional signature path. - arranging a permanent magnet to rotate with the rotatable element about a rotation axis of the rotatable element , - using a three-axis magnetic field sensor to measure a magnitude and an orientation of an incident magnetic field along said three axis and detect changes in said magnetic field magnitude and orientation, due to the rotation of the magnetic field of the permanent magnet , along said three axis as the rotatable element rotates, in order to obtain a succession of magnitude/orientation data points forming a three-dimensional signature path after a full rotation of the rotatable element - projecting the three-dimensional signature path onto a plane orthogonal to the rotation axis so as to form a circular two-dimensional signature path - deducing the angular orientation of the rotatable element from two-dimensional signature path.
A home appliance, comprising a chamber surrounded by a wall , the wall being provided with a hole , a rod member extending through the hole into the chamber , characterized in that the rod member is integrally provided with or fixedly connected to a jacking portion extending radially outward, and an elastic gasket comprising a sleeve-shaped first sealing portion adapted to be sleeved on a rod member to form a seal with the rod member , and a second sealing portion gradually expanding radially outward from an axial end portion of the first sealing portion to form a horn shape to be adapted to sealingly contact a wall provided with a hole and to cover the hole , the first sealing portion and the second sealing portion being integrally made of an elastic material is sleeved on the rod member , is axially located between the jacking portion and the wall , and is axially compressed by the jacking portion and the wall .
A traverse hardening device which performs traverse hardening on a shaft-like body which includes a main body part, and a large-diameter part provided in a part of the main body part in an axial direction and having an outer diameter larger than that of the main body part, and is disposed such that an axis thereof is directed along a vertical direction, the traverse hardening device comprising: a heating unit which heats the shaft-like body; a cooling unit including a through hole which penetrates in the vertical direction and through which the shaft-like body is inserted, and an injection hole formed on an inner circumferential surface of the through hole and configured to inject a cooling liquid; and characterised in that it includes a guide cylinder in which an inner diameter of a lower end is smaller than an inner diameter of an upper end and at least a part thereof is disposed below the cooling unit and through which the shaft-like body is inserted. includes a main body part, and a large-diameter part provided in a part of the main body part in an axial direction and having an outer diameter larger than that of the main body part, and is disposed such that an axis thereof is directed along a vertical direction, the traverse hardening device comprising: a heating unit which heats the shaft-like body; a cooling unit including a through hole which penetrates in the vertical direction and through which the shaft-like body is inserted, and an injection hole formed on an inner circumferential surface of the through hole and configured to inject a cooling liquid; and characterised in that it includes a heating unit which heats the shaft-like body; a cooling unit including a through hole which penetrates in the vertical direction and through which the shaft-like body is inserted, and an injection hole formed on an inner circumferential surface of the through hole and configured to inject a cooling liquid; and characterised in that it includes a through hole which penetrates in the vertical direction and through which the shaft-like body is inserted, and an injection hole formed on an inner circumferential surface of the through hole and configured to inject a cooling liquid; and characterised in that it includes a guide cylinder in which an inner diameter of a lower end is smaller than an inner diameter of an upper end and at least a part thereof is disposed below the cooling unit and through which the shaft-like body is inserted.
A liquid detergent composition comprising: from 2 to 25 wt.% of a C12-C14 alkyl ethoxylated sulfate surfactant; wherein the alkyl ethoxylated sulfate surfactant comprises a C14 alkyl group at a level of at least 70 wt.% of the alkyl ethoxylated sulfate surfactant; wherein the average degree of ethoxylation (EO) is from 2.5 to 3.5; wherein with reference to the wt.% of the total ethoxylated portion of said alkyl ethoxylated sulfate surfactant, the level of 1EO is from 12 to 23 wt.%, the level of 2EO is from 15 to 24 wt.%, the level of 3EO is from 20 to 35 wt.%, and the level of 4EO is from 12 to 25 wt.%; and, wherein the C12-C14 alkyl ethoxylated sulfate surfactant includes at most 10 wt.% alkyl chains of C15 and higher. from 2 to 25 wt.% of a C12-C14 alkyl ethoxylated sulfate surfactant; wherein the alkyl ethoxylated sulfate surfactant comprises a C14 alkyl group at a level of at least 70 wt.% of the alkyl ethoxylated sulfate surfactant; wherein the average degree of ethoxylation (EO) is from 2.5 to 3.5; wherein with reference to the wt.% of the total ethoxylated portion of said alkyl ethoxylated sulfate surfactant, the level of 1EO is from 12 to 23 wt.%, the level of 2EO is from 15 to 24 wt.%, the level of 3EO is from 20 to 35 wt.%, and the level of 4EO is from 12 to 25 wt.%; and, wherein the C12-C14 alkyl ethoxylated sulfate surfactant includes at most 10 wt.% alkyl chains of C15 and higher.