mhurhangee/ep-ind-claims huggingface dataset:
A jelly confectionery product comprising: an ingredient selected from the group consisting of fruit juice, fruit puree and combinations thereof; and a jelly blend consisting of a stabilizer ranging from 20% to 80% by weight of the blend and a fiber ranging from 20% to 80% by weight of the blend, wherein the fiber is microcrystalline cellulose, wherein the stabilizer is carrageenan, and wherein the jelly confectionery product is free of added sugar or corn syrup. an ingredient selected from the group consisting of fruit juice, fruit puree and combinations thereof; and a jelly blend consisting of a stabilizer ranging from 20% to 80% by weight of the blend and a fiber ranging from 20% to 80% by weight of the blend, wherein the fiber is microcrystalline cellulose, wherein the stabilizer is carrageenan, and wherein the jelly confectionery product is free of added sugar or corn syrup.
An information transmission method, wherein the method comprises: receiving, by a communications device, first downlink control information, wherein the first downlink control information comprises scheduling information used by the communications device to transmit first data; and a format of the first downlink control information is DCI format 6-0B, the first downlink control information transmitted each time comprises indication information, and the indication information is used to indicate whether the first data transmitted by the communications device is a first message 3 or a second message 3, wherein a quantity of transmissions does not reach a maximum quantity of Hybrid Automatic Repeat Request, HARQ, retransmissions configured in a network, wherein the first message 3 is a message 3 that does not carry user data, and the second message 3 is a message 3 that carries the user data; and transmitting, by the communications device, the first data based on the scheduling information and the indication information. receiving, by a communications device, first downlink control information, wherein the first downlink control information comprises scheduling information used by the communications device to transmit first data; and a format of the first downlink control information is DCI format 6-0B, the first downlink control information transmitted each time comprises indication information, and the indication information is used to indicate whether the first data transmitted by the communications device is a first message 3 or a second message 3, wherein a quantity of transmissions does not reach a maximum quantity of Hybrid Automatic Repeat Request, HARQ, retransmissions configured in a network, wherein the first message 3 is a message 3 that does not carry user data, and the second message 3 is a message 3 that carries the user data; and transmitting, by the communications device, the first data based on the scheduling information and the indication information.
A medical feedback system based on sound analysis in a medical environment, the system comprising: a plurality of microphones configured for monitoring the sounds in the medical environment, a sound scene analyzer (SSA, 10) configured for receiving and analyzing an audio signal (AUD, 2) received from the plurality microphones, characterized in that the medical feedback system further comprises a sound-level analyzer (SLA, 20) configured for receiving an audio signal (AUD, 2) from the plurality microphones and providing an indicator for perceived levels of corresponding audio signal, and the sound scene analyzer is configured for: - identifying speech, including between patients, between medical personal, and between medical personal and patients, as detected via analyzing the pitch range, mel-frequenc cepstral coefficients and envelope variation of the speech, - classifying speech into avoidable speech and unavoidable speech, whereby patient-involved speech is classified as unavoidable; and - distinguishing patient involved speech activities from other speech activities by capturing audio signals only from a very limited area near the patient using said multiple microphones applying a beam-forming technique. a plurality of microphones configured for monitoring the sounds in the medical environment, a sound scene analyzer (SSA, 10) configured for receiving and analyzing an audio signal (AUD, 2) received from the plurality microphones, characterized in that the medical feedback system further comprises a sound-level analyzer (SLA, 20) configured for receiving an audio signal (AUD, 2) from the plurality microphones and providing an indicator for perceived levels of corresponding audio signal, and the sound scene analyzer is configured for: - identifying speech, including between patients, between medical personal, and between medical personal and patients, as detected via analyzing the pitch range, mel-frequenc cepstral coefficients and envelope variation of the speech, - classifying speech into avoidable speech and unavoidable speech, whereby patient-involved speech is classified as unavoidable; and - distinguishing patient involved speech activities from other speech activities by capturing audio signals only from a very limited area near the patient using said multiple microphones applying a beam-forming technique. - identifying speech, including between patients, between medical personal, and between medical personal and patients, as detected via analyzing the pitch range, mel-frequenc cepstral coefficients and envelope variation of the speech, - classifying speech into avoidable speech and unavoidable speech, whereby patient-involved speech is classified as unavoidable; and - distinguishing patient involved speech activities from other speech activities by capturing audio signals only from a very limited area near the patient using said multiple microphones applying a beam-forming technique.
A system for removing a device from an endoscopic instrument, the system comprising: a removal element for gripping the device, the removal element having a body comprising a central portion and first and second gripping arms coupled to the central portion; and an insertion device coupled to and extending from the central portion of the removal element and having an elongate shaft configured for advancement through an opening within the device into an internal channel in the device, wherein the elongate shaft is collapsible such that an outer diameter of at least a portion of the elongate shaft is reduced upon advancement into the internal channel of the device, characterised in that the first and second gripping arms are pivotally coupled to the central portion. a removal element for gripping the device, the removal element having a body comprising a central portion and first and second gripping arms coupled to the central portion; and an insertion device coupled to and extending from the central portion of the removal element and having an elongate shaft configured for advancement through an opening within the device into an internal channel in the device, wherein the elongate shaft is collapsible such that an outer diameter of at least a portion of the elongate shaft is reduced upon advancement into the internal channel of the device, characterised in that the first and second gripping arms are pivotally coupled to the central portion.
A dispenser for a product in stick form comprising: a tubular body, the tubular body including a base part and a removable cap for closing an open end of the base part, the base part comprising at least one slot extending along and through the side wall of the base part, the base part at least being made from a paper-based or card-based material such as paperboard or cardboard; a product stick carrier slidably received in the base part and having at least one lug projecting through the slot in the side wall of the base part for manipulation by a user, the product stick carrier being formed of a paper-based or card-based material and supporting a product stick for reciprocating movement within the base part, characterised in that the dispenser further comprises a shield (50; 50; 50") extending between an external peripheral surface of the product stick and the internal surface of the wall of the base part (6; 6'; 6") for covering the at least one slot of the base part (6; 6'; 6"), wherein the shield is attached to the carrier so as to move axially therewith. a tubular body, the tubular body including a base part and a removable cap for closing an open end of the base part, the base part comprising at least one slot extending along and through the side wall of the base part, the base part at least being made from a paper-based or card-based material such as paperboard or cardboard; a product stick carrier slidably received in the base part and having at least one lug projecting through the slot in the side wall of the base part for manipulation by a user, the product stick carrier being formed of a paper-based or card-based material and supporting a product stick for reciprocating movement within the base part, characterised in that the dispenser further comprises a shield (50; 50; 50") extending between an external peripheral surface of the product stick and the internal surface of the wall of the base part (6; 6'; 6") for covering the at least one slot of the base part (6; 6'; 6"), wherein the shield is attached to the carrier so as to move axially therewith.
A component for use in a hot gas path of an industrial machine, such as a gas turbine engine or a power generation system, the component comprising: an outer surface; a thermal barrier coating over the outer surface; an internal cooling circuit (86, 160); a cooling pathway (170, 200) in communication with the internal cooling circuit (86, 160) and extending towards the outer surface; and an adaptive cover in the cooling pathway (170, 200) at the outer surface, characterized in that the adaptive cover including a heat transfer enhancing surface at the outer surface causing the adaptive cover to absorb heat faster than the outer surface. an outer surface; a thermal barrier coating over the outer surface; an internal cooling circuit (86, 160); a cooling pathway (170, 200) in communication with the internal cooling circuit (86, 160) and extending towards the outer surface; and an adaptive cover in the cooling pathway (170, 200) at the outer surface, characterized in that the adaptive cover including a heat transfer enhancing surface at the outer surface causing the adaptive cover to absorb heat faster than the outer surface.
A linker-drug compound of structure: wherein: X is a leaving group selected from the group consisting of; wherein the leaving group, X, and the sulfur atom, S, are bound via a disulfide bond; R 1 and R 2 together with the carbon atom to which they are bound form a four- to six-membered carbon ring or a four- to six-membered carbon ring comprising an oxygen heteroatom; Sp is a spacer wherein n is 0 or 1; and D is a drug moiety selected from a maytansine, an auristatin, a dolastatin, a pyrrolobenzodiazepine monomer or dimer having the structure: wherein n is 0 or 1, a 1-(chloromethyl)-2,3-dihydro-1H-benzo[e]indole monomer or dimer, and a CBI-PBD dimer. X is a leaving group selected from the group consisting of; wherein the leaving group, X, and the sulfur atom, S, are bound via a disulfide bond; R 1 and R 2 together with the carbon atom to which they are bound form a four- to six-membered carbon ring or a four- to six-membered carbon ring comprising an oxygen heteroatom; Sp is a spacer wherein n is 0 or 1; and D is a drug moiety selected from a maytansine, an auristatin, a dolastatin, a pyrrolobenzodiazepine monomer or dimer having the structure: wherein n is 0 or 1, a 1-(chloromethyl)-2,3-dihydro-1H-benzo[e]indole monomer or dimer, and a CBI-PBD dimer.
A modular reverse shoulder orthopaedic implant, comprising: an elongated humeral stem component configured to be implanted into the humerus of a patient, a fracture epiphysis component separable from the humeral stem component, the fracture epiphysis component comprising (i) a cup-shaped body having a rounded outer surface, (ii) a channel formed in an inferior end of the rounded outer surface of the cup-shaped body, (iii) a plurality of walls positioned in the channel so as to form a plurality of suture pockets within the channel, in which each of the plurality of walls has a suture hole formed therein, a locking screw configured to be secured to the humeral stem component and the fracture epiphysis component, and a humeral cup component configured to be secured to the fracture epiphysis component, the humeral cup component having a concave bearing surface configured to articulate with a rounded head surface of a glenosphere component, characterised in that the outer surface of the cup-shaped body of the fracture epiphysis component comprises an additional suture hole extending therethrough in an anteroposterior direction. an elongated humeral stem component configured to be implanted into the humerus of a patient, a fracture epiphysis component separable from the humeral stem component, the fracture epiphysis component comprising (i) a cup-shaped body having a rounded outer surface, (ii) a channel formed in an inferior end of the rounded outer surface of the cup-shaped body, (iii) a plurality of walls positioned in the channel so as to form a plurality of suture pockets within the channel, in which each of the plurality of walls has a suture hole formed therein, a locking screw configured to be secured to the humeral stem component and the fracture epiphysis component, and a humeral cup component configured to be secured to the fracture epiphysis component, the humeral cup component having a concave bearing surface configured to articulate with a rounded head surface of a glenosphere component, characterised in that the outer surface of the cup-shaped body of the fracture epiphysis component comprises an additional suture hole extending therethrough in an anteroposterior direction.
A method of encoding a video segment using geometric primitives, comprising: encoding a number of the geometric primitives to be used for a video segment; encoding type information and an additional parameter for each of the geometric primitives; if the type information is different from a default type, encoding additional parameters of a distance-to-weight function to be used for the corresponding geometric primitive, wherein the additional parameters of the distance-to-weight function to be used include a scale parameter (μ) and a change parameter (η); calculating an edge weight for each of the edges of a graph-based representation of a target block within the video segment based on a distance-to-weight function; and encoding the pixel values in the target block based on the edge weight of the graph-based representation of the target block, wherein the calculating step further includes: calculating the minimum distance for an edge in a graph-based representation of a target block, wherein the minimum distance indicates the minimum distance from a center of the edge to each of the geometric primitives; and applying a distance-to-weight function to the minimum distance, wherein the distance-to-weight function is defined as: φ d μ η = 2 − μd η, wherein d indicates the minimum distance, μ indicates the scale parameter and η indicates the change parameter. encoding a number of the geometric primitives to be used for a video segment; encoding type information and an additional parameter for each of the geometric primitives; if the type information is different from a default type, encoding additional parameters of a distance-to-weight function to be used for the corresponding geometric primitive, wherein the additional parameters of the distance-to-weight function to be used include a scale parameter (μ) and a change parameter (η); calculating an edge weight for each of the edges of a graph-based representation of a target block within the video segment based on a distance-to-weight function; and encoding the pixel values in the target block based on the edge weight of the graph-based representation of the target block, wherein the calculating step further includes: calculating the minimum distance for an edge in a graph-based representation of a target block, wherein the minimum distance indicates the minimum distance from a center of the edge to each of the geometric primitives; and applying a distance-to-weight function to the minimum distance, wherein the distance-to-weight function is defined as: φ d μ η = 2 − μd η, wherein d indicates the minimum distance, μ indicates the scale parameter and η indicates the change parameter. calculating the minimum distance for an edge in a graph-based representation of a target block, wherein the minimum distance indicates the minimum distance from a center of the edge to each of the geometric primitives; and applying a distance-to-weight function to the minimum distance, wherein the distance-to-weight function is defined as: φ d μ η = 2 − μd η, wherein d indicates the minimum distance, μ indicates the scale parameter and η indicates the change parameter.
A hanging droplet plate (1; 3; 5; 6; 9) comprising a predetermined number of droplet compartments (10; 30; 50; 60; 90) each being capable of receiving a droplet (20, 21; 40, 41, 42; 60, 61, 52, 63, 64) of a liquid, the respective droplet compartment (10; 30; 50; 60; 90) comprising a circumferential microfluidic wetting barrier (102; 302; 502; 702; 902) arranged to surround a respective cavity (100; 500) and preventing a droplet from spreading beyond the microfluidic wetting barrier, wherein the respective droplet compartment (10; 30; 50; 60; 90) comprises a closed bottom (101; 501) and at least one additional circumferential microfluidic wetting barrier (104; 304, 306; 504, 506, 508, 510; 604, 606; 904, 906), each additional circumferential microfluidic wetting barrier (104; 304, 306; 504, 506, 508, 510; 604, 606; 904, 906) being arranged to surround a preceding circumferential microfluidic wetting barrier (102; 302, 304; 502, 504, 506, 508; 604, 606; 904, 906), with a wettable area (103; 303, 305; 503, 505, 507, 509) being arranged between two adjacently arranged microfluidic wetting barriers.
An apparatus comprising: a first altitude input interface, wherein the first altitude input interface is adapted to receive, from an altimeter, a first altitude value representing an estimated altitude; a second altitude input interface, wherein the second altitude input interface is adapted to receive, from an altimeter, a second altitude value representing the estimated altitude, wherein the second altitude value has a cyclical range and is an unsigned integer comprising a plurality of digits; a data fusion component coupled to the first altitude input interface and the second altitude input interface and configured to compose, from the first altitude value and the second altitude value, a third altitude value representing the estimated altitude, such that a sign and one or more most significant digits of the third altitude value are based on the first altitude value, and one or more least significant digits of the third altitude value are based on the second altitude value; an altitude output interface coupled to the data fusion component, wherein the altitude output interface is adapted to output the third altitude value. a first altitude input interface, wherein the first altitude input interface is adapted to receive, from an altimeter, a first altitude value representing an estimated altitude; a second altitude input interface, wherein the second altitude input interface is adapted to receive, from an altimeter, a second altitude value representing the estimated altitude, wherein the second altitude value has a cyclical range and is an unsigned integer comprising a plurality of digits; a data fusion component coupled to the first altitude input interface and the second altitude input interface and configured to compose, from the first altitude value and the second altitude value, a third altitude value representing the estimated altitude, such that a sign and one or more most significant digits of the third altitude value are based on the first altitude value, and one or more least significant digits of the third altitude value are based on the second altitude value; an altitude output interface coupled to the data fusion component, wherein the altitude output interface is adapted to output the third altitude value.
A power conditioning system for converting a generated power based on renewable energy and outputting the resulting electric power to an electric power system, the power conditioning system comprising: an output power suppression control section adapted to reduce an output power based on fluctuation information of the electric power system; a return control section adapted to increase the output power according to a predetermined return pattern after the output power decreases, wherein the return pattern is formed so as to be variable by external instruction information, characterized in that the power conditioning system comprises means for estimating a frequency time-series waveform by simulating a frequency fluctuation; means for calculating a plurality of inflection points of the frequency time-series waveform in calculating the return pattern information; means for calculating the first two points among the inflection points; and means for calculating the return pattern for causing the output power between a time instance of the first inflection point and a time instance of the second inflection point to monotonically increase so as to set an output condition of the power conditioning system at the time instance of the first inflection point to zero and set the output condition of the power conditioning system at the time instance of the second inflection point to a maximum output power. an output power suppression control section adapted to reduce an output power based on fluctuation information of the electric power system; a return control section adapted to increase the output power according to a predetermined return pattern after the output power decreases, wherein the return pattern is formed so as to be variable by external instruction information, characterized in that the power conditioning system comprises means for estimating a frequency time-series waveform by simulating a frequency fluctuation; means for calculating a plurality of inflection points of the frequency time-series waveform in calculating the return pattern information; means for calculating the first two points among the inflection points; and means for calculating the return pattern for causing the output power between a time instance of the first inflection point and a time instance of the second inflection point to monotonically increase so as to set an output condition of the power conditioning system at the time instance of the first inflection point to zero and set the output condition of the power conditioning system at the time instance of the second inflection point to a maximum output power.