mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for encoding a multi channel audio signal, the apparatus comprising: a receiver for receiving the multi channel audio signal comprising at least a first audio signal from a first microphone and a second audio signal from a second microphone; a time difference unit for determining an inter time difference between the first audio signal and the second audio signal; a delay unit for generating a compensated multi channel audio signal from the multi channel audio signal by delaying at least one of the first audio signal and the second audio signal in response to the inter time difference signal; a mono unit for generating a mono signal by combining channels of the compensated multi channel audio signal; and a mono signal encoder for encoding the mono signal; the apparatus being characterized by the time difference unit being arranged to determine cross correlations between the first audio signal and the second audio signal for a plurality of time offsets, and to determine the inter time difference in response to the cross correlations; and the time difference unit comprising: a trellis state machine having a plurality of states, each of the plurality of states corresponding to a time offset of the plurality of time offsets; a path unit for determining path metrics for states of the trellis state machine in response to the cross correlations; and a computational unit for determining state metrics for the states in response to path metrics associated with paths from previous states to current states; and a unit for determining the inter time difference in response to the state metrics. a receiver for receiving the multi channel audio signal comprising at least a first audio signal from a first microphone and a second audio signal from a second microphone; a time difference unit for determining an inter time difference between the first audio signal and the second audio signal; a delay unit for generating a compensated multi channel audio signal from the multi channel audio signal by delaying at least one of the first audio signal and the second audio signal in response to the inter time difference signal; a mono unit for generating a mono signal by combining channels of the compensated multi channel audio signal; and a mono signal encoder for encoding the mono signal; the apparatus being characterized by the time difference unit being arranged to determine cross correlations between the first audio signal and the second audio signal for a plurality of time offsets, and to determine the inter time difference in response to the cross correlations; and a trellis state machine having a plurality of states, each of the plurality of states corresponding to a time offset of the plurality of time offsets; a path unit for determining path metrics for states of the trellis state machine in response to the cross correlations; and a computational unit for determining state metrics for the states in response to path metrics associated with paths from previous states to current states; and a unit for determining the inter time difference in response to the state metrics.
Method for time-dependent vehicle routing in a road network, which is modeled as a directed graph with nodes, which represent intersections, and arcs, which represent road segments, the method being a Customizable Contraction Hierarchies method, and wherein the time-dependent vehicle routing involves determining a travel path between a first node and a second node, the method comprising: weighting every arc with a travel time function mapping departure time to travel time; contracting all nodes by inserting shortcut arcs between neighbours of a node if a shortest path between the neighbours goes over the node so that the travel path is represented by a shortcut between the first node and the second node; wherein each shortcut has a lower bound of the travel time function, an upper bound of the travel time function and a set of time-dependent expansions; the method further comprising: unpacking the shortcut to obtain individual time-dependent sub travel times for each sub-segment of a plurality of sub-segments of the travel path associated with the shortcut using the lower bound, the upper bound and the set of time-dependent expansions of the shortcut; and determining a travel time for the travel path based on the time-dependent sub travel times. weighting every arc with a travel time function mapping departure time to travel time; contracting all nodes by inserting shortcut arcs between neighbours of a node if a shortest path between the neighbours goes over the node so that the travel path is represented by a shortcut between the first node and the second node; wherein each shortcut has a lower bound of the travel time function, an upper bound of the travel time function and a set of time-dependent expansions; unpacking the shortcut to obtain individual time-dependent sub travel times for each sub-segment of a plurality of sub-segments of the travel path associated with the shortcut using the lower bound, the upper bound and the set of time-dependent expansions of the shortcut; and determining a travel time for the travel path based on the time-dependent sub travel times.
An exercise device comprising: two load bearing plates (12, 14), each of which has a curved regular convex triangular face with a centre region and a peripheral region; a plurality of peripheral handles (20, 22, 24), each connecting to the peripheral region of the load bearing plates (12, 14); an inner handle connecting to the centre region of the load bearing plates (12, 14); such that each of the peripheral handle (20, 22, 24) and the inner handle has a longitudinal axis that is parallel to one another. two load bearing plates (12, 14), each of which has a curved regular convex triangular face with a centre region and a peripheral region; a plurality of peripheral handles (20, 22, 24), each connecting to the peripheral region of the load bearing plates (12, 14); an inner handle connecting to the centre region of the load bearing plates (12, 14); such that each of the peripheral handle (20, 22, 24) and the inner handle has a longitudinal axis that is parallel to one another.
A battery pack (10; 10A) configured to be able to be mounted on a tool body of a electric tool as a power source of the electric tool, the battery pack comprising a housing case (20; 111) forming an outer cover, and a plurality of battery cells disposed in the housing case (20; 111), wherein a drain hole (25; 25A) is provided at a bottom portion of the housing case (20; 111), the drain hole (25; 25A) communicating between an inside and an outside of the housing case (20; 111), and the drain hole (25; 25A) has a function of discharging water, which has been introduced into the inside of the housing case (20; 111), to the outside of the housing case (20; 111), wherein an outer end edge of the drain hole disposed on an outer side of the housing case (20; 111) is formed and set to have a shape so that the outer end edge rises toward the inside of the housing case (20; 111) as compared to at least a peripheral portion of the outer end edge, wherein the housing case (20; 111) comprises a support lower surface which is the bottom portion of the battery pack, wherein the shape of the outer end edge of the drain hole, which is disposed at the outer portion of the housing case (20; 111) is set so that the outer end edge rises toward the inside of the housing case (20; 111) as compared with the support lower surface that corresponds to the peripheral portion of the outer end edge, and wherein a clearance is formed between the outer end edge and a placement surface with which the support lower surface of the housing case (20; 111) corresponding to the peripheral portion of the outer end edge comes into contact when the battery pack is placed on the placement surface.
An integrated (i) tubus, and (ii) laryngeal mask device, comprising: a. an outer laryngeal mask tube having proximal portion and distal portion; comprising: i. a balloon cuff shaped as a laryngeal mask, having at least one inflated configuration and at least one deflated configuration, located in said distal portion; said balloon in a fluid connection with an inflating means (8A, 8B), located at said proximal end; and, ii. an elongated tube in connection with said balloon cuff (TOLT); b. an inner tube (tubus) located within said OLT, and allowing ventilation through the tubus; said tubus is characterized by a main longitudinal axis; and, c. at least one lateral movement preventing element (9, 10) located circumferentially to said tubus and between said tubus and said OLT; adapted both (i) to prevent lateral movement of said tubus with respect to said OLT, such that contamination of the environment between said tubus and said OLT is prevented; and (ii) to allow longitudinal reciprocating movement of said tubus along said main longitudinal axis with respect to said OLT, in a manner that a seal is provided in the inner volume between the OLT and the tubus wherein, when said balloon cuff is in said deflated configuration, the thickness of the same is reduced such that said balloon cuff is not protruding from said TOLT. a. an outer laryngeal mask tube having proximal portion and distal portion; comprising: i. a balloon cuff shaped as a laryngeal mask, having at least one inflated configuration and at least one deflated configuration, located in said distal portion; said balloon in a fluid connection with an inflating means (8A, 8B), located at said proximal end; and, ii. an elongated tube in connection with said balloon cuff (TOLT); i. a balloon cuff shaped as a laryngeal mask, having at least one inflated configuration and at least one deflated configuration, located in said distal portion; said balloon in a fluid connection with an inflating means (8A, 8B), located at said proximal end; and, ii. an elongated tube in connection with said balloon cuff (TOLT); b. an inner tube (tubus) located within said OLT, and allowing ventilation through the tubus; said tubus is characterized by a main longitudinal axis; and, c. at least one lateral movement preventing element (9, 10) located circumferentially to said tubus and between said tubus and said OLT; adapted both (i) to prevent lateral movement of said tubus with respect to said OLT, such that contamination of the environment between said tubus and said OLT is prevented; and (ii) to allow longitudinal reciprocating movement of said tubus along said main longitudinal axis with respect to said OLT, in a manner that a seal is provided in the inner volume between the OLT and the tubus
An antibody or an epitope-binding fragment thereof that specifically binds to an EphA2 receptor and comprising at least one heavy chain and at least one light chain, wherein said heavy chain comprises an amino acid sequence consisting of SEQ ID NO: 12 and wherein said light chain comprises an amino acid sequence consisting of SEQ ID NO: 14.
A positive electrode active material comprising: a solid solution lithium-containing transition metal oxide represented by a compositional formula Li 1.5 [Ni a Co b Mn c [Li] d]O 3.... wherein in the formula, Li is lithium, Ni is nickel, Co is cobalt, Mn is manganese and O represents oxygen, where a, b, c and d satisfy the relations of 0.25<a<0.44, 0<b<0.44, 0.37<c<1.1, 0.15≤d≤0.25, a+b+c+d=1.5, 1.25≤a+b+c≤1.35, and 0<b/a<1, while having a spinel structure change ratio of not smaller than 0.5 and smaller than 0.9, wherein the spinel structure change ratio is determined as outlined in the specification in paragraphs to; and a lithium-containing transition metal oxide represented by a compositional formula LiM x Mn 2-x O 4.... wherein in the formula, Li is lithium, Mn is manganese, O is oxygen, M represents Cr or Al, and x satisfies the relation of 0≤x<2. a solid solution lithium-containing transition metal oxide represented by a compositional formula Li 1.5 [Ni a Co b Mn c [Li] d]O 3.... wherein in the formula, Li is lithium, Ni is nickel, Co is cobalt, Mn is manganese and O represents oxygen, where a, b, c and d satisfy the relations of 0.25<a<0.44, 0<b<0.44, 0.37<c<1.1, 0.15≤d≤0.25, a+b+c+d=1.5, 1.25≤a+b+c≤1.35, and 0<b/a<1, while having a spinel structure change ratio of not smaller than 0.5 and smaller than 0.9, wherein the spinel structure change ratio is determined as outlined in the specification in paragraphs to; and a lithium-containing transition metal oxide represented by a compositional formula LiM x Mn 2-x O 4.... wherein in the formula, Li is lithium, Mn is manganese, O is oxygen, M represents Cr or Al, and x satisfies the relation of 0≤x<2.
Differential calorimeter with flux measurement to measure a heat flux emitted by radioactive materials contained in a container, comprising a reception containment to receive the container, a thermal block BT and a reference cell comprising a reference sample under the reception containment, characterised in that it further comprises - measurement plates distributed around the container reception containment, - measurement Peltier elements located behind the measurement plates from the container when it is in the reception containment, the measurement Peltier elements being further fixed to the thermal block, - reference plates placed behind the measurement plates from the container when it is in the reception containment, the measurement plates and the reference plates being separated by an isolating layer and the reference plates being fixed to the thermal block by reference Peltier elements. - measurement plates distributed around the container reception containment, - measurement Peltier elements located behind the measurement plates from the container when it is in the reception containment, the measurement Peltier elements being further fixed to the thermal block, - reference plates placed behind the measurement plates from the container when it is in the reception containment, the measurement plates and the reference plates being separated by an isolating layer and the reference plates being fixed to the thermal block by reference Peltier elements.
Terahertz analysis device, comprising: a terahertz source, a converter (1, 105) for converting terahertz radiation into thermal radiation, and a thermal detector, the converter comprising at least one zone (ZS 11, ZS 12, ZS 21, ZS 22, ZS 31) sensitive to terahertz radiation, arranged to absorb the terahertz radiation and to convert the absorbed radiation into heat, characterized in that said sensitive zone is in proximity to a reference zone, of known absorption capacity, and in that the thermal detector is arranged to measure the heat generated by the sensitive zone relative to the heat generated by the reference zone, the sensitive zone being formed of a plurality of sensitive elements arranged into an array, the sensitive elements being separated by boundaries forming the reference zone. a terahertz source, a converter (1, 105) for converting terahertz radiation into thermal radiation, and a thermal detector, the converter comprising at least one zone (ZS 11, ZS 12, ZS 21, ZS 22, ZS 31) sensitive to terahertz radiation, arranged to absorb the terahertz radiation and to convert the absorbed radiation into heat, characterized in that said sensitive zone is in proximity to a reference zone, of known absorption capacity, and in that the thermal detector is arranged to measure the heat generated by the sensitive zone relative to the heat generated by the reference zone, the sensitive zone being formed of a plurality of sensitive elements arranged into an array, the sensitive elements being separated by boundaries forming the reference zone.
Modular element adapted to replace a portion of the façade of a building in correspondence with at least one floor (A, B, C, D) of the building, said modular element comprising an air conditioning unit and a channeling system, wherein the channeling system is configured to receive a fluid from an external fluid source, and comprises at least one first channel entering the air conditioning unit, and wherein the air conditioning unit comprises: - a mechanical ventilation element configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween; - a hot and/or cold air diffusion element configured to heat and/or cool said air inflow using the fluid circulating in the first channel and to input said air inflow into the interior environment of the building; - an electronic control element configured to control the hot and/or cold air diffusion element and the mechanical ventilation element; and wherein said modular element being characterized in that: - the channeling system comprises at least one second channel connectable to an internal diffusion element of the building, and configured to transport the fluid from the external source to the internal diffusion element of the building. wherein the channeling system is configured to receive a fluid from an external fluid source, and comprises at least one first channel entering the air conditioning unit, and wherein the air conditioning unit comprises: - a mechanical ventilation element configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween; - a hot and/or cold air diffusion element configured to heat and/or cool said air inflow using the fluid circulating in the first channel and to input said air inflow into the interior environment of the building; - an electronic control element configured to control the hot and/or cold air diffusion element and the mechanical ventilation element; - a mechanical ventilation element configured to generate an air inflow into the building and an air outflow from the building, and to exchange heat therebetween; - a hot and/or cold air diffusion element configured to heat and/or cool said air inflow using the fluid circulating in the first channel and to input said air inflow into the interior environment of the building; - an electronic control element configured to control the hot and/or cold air diffusion element and the mechanical ventilation element; and wherein said modular element being characterized in that: - the channeling system comprises at least one second channel connectable to an internal diffusion element of the building, and configured to transport the fluid from the external source to the internal diffusion element of the building. - the channeling system comprises at least one second channel connectable to an internal diffusion element of the building, and configured to transport the fluid from the external source to the internal diffusion element of the building.
A stable lyophilized exosome formulation suitable for administration to a human, wherein the exosome formulation is generated from cardiosphere-derived cells (CDCs).
A data symbol transmission method, comprising: determining, by a first wireless network device, a location at which hardware switching needs to be performed in a current subframe and switching time of the hardware switching; configuring, by the first wireless network device according to the switching time, a first guard period for a first data symbol corresponding to the location, wherein a length of the first guard period is greater than or equal to that of the switching time; using, by the first wireless network device as a second data symbol, a data symbol in the subframe other than the first data symbol, and configuring a second guard period for the second data symbol; comparing, by the first wireless network device, the length of the first guard period with a length of the second guard period, wherein the length of the second guard period is pre-configured; and if the length of the first guard period is less than the length of the second guard period, configuring, by the first wireless network device, the length of the first guard period to be the same as that of the second guard period; and sending, by the first wireless network device, the subframe to a second wireless network device. determining, by a first wireless network device, a location at which hardware switching needs to be performed in a current subframe and switching time of the hardware switching; configuring, by the first wireless network device according to the switching time, a first guard period for a first data symbol corresponding to the location, wherein a length of the first guard period is greater than or equal to that of the switching time; using, by the first wireless network device as a second data symbol, a data symbol in the subframe other than the first data symbol, and configuring a second guard period for the second data symbol; comparing, by the first wireless network device, the length of the first guard period with a length of the second guard period, wherein the length of the second guard period is pre-configured; and if the length of the first guard period is less than the length of the second guard period, configuring, by the first wireless network device, the length of the first guard period to be the same as that of the second guard period; and sending, by the first wireless network device, the subframe to a second wireless network device.
A Francis turbine runner for inlet head above 200 m, comprising a band, a crown concentric with the band, and a plurality of spaced blades between the band and the crown, for rotation about a turbine axis by the action of water flowing between adjacent blades, into a central outlet area and out from the turbine runner through an outlet of the band with an outlet diameter (D b), each blade has a leading suction side, as seen in the rotational direction, a trialing pressure side, a band side connected to the band, a crown side connected to the crown, an inlet side, and an outlet side, the blades are arranged with their inlet sides around the circumference of the runner, each blade has an inlet diameter, the blades collectively have a mean inlet diameter (D m), characterized in that at least one blade has an inlet diameter with a deviation from the mean inlet diameter (D m) of 0.5 to 3% of the band outlet diameter (D b).
A method for producing an ophthalmic lens, comprising: providing a plastic mold section; mounting the plastic mold section onto a mandrel, said mandrel having a flywheel, a base unit, and a projection having a rotational axis that is offset from a rotational axis of a lathe assembly; and characterized in that the plastic mold section has a lens button with a posterior surface comprising a toric zone with a major axis; and the method comprises fixing the flywheel to a first reference point so that the first reference point is at a first radian position; rotating the base unit relative to the flywheel so that a second reference point is at a second radian position; and fixing the flywheel and the base unit from rotating relative to one another. providing a plastic mold section; mounting the plastic mold section onto a mandrel, said mandrel having a flywheel, a base unit, and a projection having a rotational axis that is offset from a rotational axis of a lathe assembly; and characterized in that the plastic mold section has a lens button with a posterior surface comprising a toric zone with a major axis; and the method comprises fixing the flywheel to a first reference point so that the first reference point is at a first radian position; rotating the base unit relative to the flywheel so that a second reference point is at a second radian position; and fixing the flywheel and the base unit from rotating relative to one another.