mhurhangee/ep-ind-claims huggingface dataset:
A machine-implemented method of distributed multi-processing, comprising: asynchronously receiving packets from a plurality of outputs of computation units, each of the packets comprising one or more constituent elements associated with a respective index element describing computation tasks to be performed for the one or more constituent elements; and in a plurality of steps, packaging the constituent elements comprised in the received packets into progressively larger packets, the packaging comprising, in each of the steps, grouping constituent elements into packets by comparing respective index elements in multiple received packets, and grouping those constituent elements associated with matching index fields. asynchronously receiving packets from a plurality of outputs of computation units, each of the packets comprising one or more constituent elements associated with a respective index element describing computation tasks to be performed for the one or more constituent elements; and in a plurality of steps, packaging the constituent elements comprised in the received packets into progressively larger packets, the packaging comprising, in each of the steps, grouping constituent elements into packets by comparing respective index elements in multiple received packets, and grouping those constituent elements associated with matching index fields.
A method for receiving feedback information, wherein the method comprises: receiving, by a terminal device, a downlink data channel sent by a network device, the downlink data channel comprising Hybrid Automatic Repeat reQuest, HARQ, feedback information, the HARQ feedback information comprising feedback information of uplink data of at least one terminal device, and the terminal device being one of the at least one terminal device; and demodulating, by the terminal device, the downlink data channel to obtain the HARQ feedback information, characterized in that the method further comprises: receiving, by the terminal device, a high layer signaling sent by the network device, the high layer signaling comprising a dedicated identifier of the at least one terminal device, and the dedicated identifier of the at least one terminal device being used to indicate the at least one terminal device to demodulate the downlink data channel comprising HARQ feedback information, wherein the at least one terminal device comprises a plurality of terminal devices, and the dedicated identifier of the at least one terminal device is shared identification information of the plurality of terminal devices. receiving, by a terminal device, a downlink data channel sent by a network device, the downlink data channel comprising Hybrid Automatic Repeat reQuest, HARQ, feedback information, the HARQ feedback information comprising feedback information of uplink data of at least one terminal device, and the terminal device being one of the at least one terminal device; and demodulating, by the terminal device, the downlink data channel to obtain the HARQ feedback information, characterized in that the method further comprises: receiving, by the terminal device, a high layer signaling sent by the network device, the high layer signaling comprising a dedicated identifier of the at least one terminal device, and the dedicated identifier of the at least one terminal device being used to indicate the at least one terminal device to demodulate the downlink data channel comprising HARQ feedback information, wherein the at least one terminal device comprises a plurality of terminal devices, and the dedicated identifier of the at least one terminal device is shared identification information of the plurality of terminal devices.
A sowing heart control apparatus for controlling a sowing heart with a sowing heart monitoring apparatus which has an evaluation unit for determining the occupancy of sowing holes of a rotating seed disk with a seed in operation, the evaluation unit delivering an actual value of the occupancy of one or more sowing holes, and the sowing heart control apparatus depending on a deviation of the actual occupancy value from a filed setpoint of the occupancy of one or more sowing holes being made to control the actuating elements which influence the occupancy.
Container handling device with a container handling machine and with at least one transport device, arranged upstream of the container handling machine and comprising several transport stars (20a-c; 30a-g) arranged one behind another, which have container receivers at their circumference which are designed to grip containers, wherein the several transport stars (20a-c; 30a-g) are arranged one behind another in such a way that a container is transferred at a common transfer point from one upstream transport star (20a-c; 30a-g) to a following downstream transport star, wherein the position of the axes of rotation (32c-e) of at least two transport stars (20a-c; 30c-e) following one another sequentially are driven by a motor and can be moved in a controlled manner in a horizontal plane between transport stars which are arranged securely upstream and downstream in the direction of transport, and wherein the container handling device comprises a drive device, controlled by a control unit of the container handling device and/or of the transport device, in order to move the axes of rotation (32c-e) in the horizontal plane, characterised in that the container throughput can be detected at at least one point on a transport path on the basis of the signals from a detector and/or at at least one signal output of the container handling device, and, depending on this, the movement of the axes of rotation (32c-e) of the transport stars (20a-c; 30c-e) can be controlled.
A multi-spectrum photosensitive device comprising a transparent base layer with two opposite sides, characterized in that each of the two sides is provided with photosensitive pixels at the same positions, each photosensitive pixel is used for sensing light of interested spectrum irradiated from either an obverse direction or a reverse direction of the side on which the photosensitive pixel is located on, and the multi-spectrum photosensitive device comprises a direction-selecting means, being adapted for, when all or part of the photosensitive pixels on a selected side of the two sides are sensing, shading from light the photosensitive pixels at the corresponding position on the side symmetrical to the selected side.
A security and/or valuable document, comprising a layered structure comprising at least one Layer comprising a thermoplastic plastic, and at least one Layer produced from a polymer based composite, preferably the document is an identification document, e.g. an identification card, characterized in that the polymer based composite comprises (a) a polyamide component (a), (b) a (co)-polyamide (b) based on ether units and amide units, and (c) carbon black. at least one Layer comprising a thermoplastic plastic, and at least one Layer produced from a polymer based composite, (a) a polyamide component (a), (b) a (co)-polyamide (b) based on ether units and amide units, and (c) carbon black.
Sizing composition for reinforcing fibres, characterized in that it comprises: - a polybutadiene prepolymer comprising at least two epoxy functions; - a cross-linking agent comprising at least two reactive functions, at least one of which is a thiol function; and - a catalyst comprising at least one tertiary amine function. - a polybutadiene prepolymer comprising at least two epoxy functions; - a cross-linking agent comprising at least two reactive functions, at least one of which is a thiol function; and - a catalyst comprising at least one tertiary amine function.
Method for operating an internal combustion engine having an internal combustion engine, a fresh-gas tract, and an exhaust tract which has an actively regenerable exhaust-gas aftertreatment device, wherein, for a cylinder of the internal combustion engine, the supply of fresh gas is controlled by means of an inlet valve and the discharge of exhaust gas is controlled by means of an outlet valve, wherein scavenging is performed in that, in the presence of a positive pressure in the fresh-gas tract in the region of the inlet valve in relation to the pressure in the exhaust tract in the region of the outlet valve, scavenging of gas present in a combustion chamber of the cylinder occurs as a result of a second event for the inlet valve and/or the outlet valve, characterized in that the scavenging is used during the regeneration of the exhaust-gas aftertreatment device.
A lighting fixture comprising: - a heat spreading cup having a bottom panel, a rim, and at least one sidewall extending between the bottom panel and the rim; - a light source coupled to the front surface of the bottom panel and inside the heat spreading cup, the light source configured to emit light in a forward direction through an opening formed by the rim, wherein the light source is thermally coupled to the bottom panel such that heat generated by the light source during operation is transferred radially outward along the bottom panel and in the forward direction along the at least one sidewall toward the rim; - a control module having electronics to control the light source and coupled to an exterior surface of the bottom panel opposite the front surface; and - a heat sink coupled to the exterior surface of the bottom panel opposite the light source, wherein the heat sink has an interior opening in which the control module is received once the heat sink is coupled to the exterior surface of the bottom panel. - a heat spreading cup having a bottom panel, a rim, and at least one sidewall extending between the bottom panel and the rim; - a light source coupled to the front surface of the bottom panel and inside the heat spreading cup, the light source configured to emit light in a forward direction through an opening formed by the rim, wherein the light source is thermally coupled to the bottom panel such that heat generated by the light source during operation is transferred radially outward along the bottom panel and in the forward direction along the at least one sidewall toward the rim; - a control module having electronics to control the light source and coupled to an exterior surface of the bottom panel opposite the front surface; and - a heat sink coupled to the exterior surface of the bottom panel opposite the light source, wherein the heat sink has an interior opening in which the control module is received once the heat sink is coupled to the exterior surface of the bottom panel.
A portable cooling unit for cooling and insulating a vessel containing packages, bottles or bags of blood, blood plasma and medication during transit, the portable cooling unit comprising: a thermally insulating envelope that is arranged to house and thermally insulate the vessel, said thermally insulating envelope comprising a breathable reflective layer (70, 90), a breathable waterproof layer (80, 100) and an opening for accessing the vessel, a cooling envelope that is arranged to cool and house the thermally insulating envelope and the vessel, said cooling envelope comprising two water-permeable layers (110, 120) and an opening for accessing the vessel, and a housing envelope that is arranged to house the vessel, the cooling envelope and the thermally insulating envelope, said housing envelope comprising an opening for accessing the vessel and a breathable water-permeable layer that allows moisture and/or water to cross the envelope; wherein the two water-permeable layers (110, 120) of the cooling layer are arranged to bound an enclosure containing an absorbent and moisture-wicking material, and further wherein the absorbent and moisture-wicking material is arranged to cool the vessel via evaporation of water. a thermally insulating envelope that is arranged to house and thermally insulate the vessel, said thermally insulating envelope comprising a breathable reflective layer (70, 90), a breathable waterproof layer (80, 100) and an opening for accessing the vessel, a cooling envelope that is arranged to cool and house the thermally insulating envelope and the vessel, said cooling envelope comprising two water-permeable layers (110, 120) and an opening for accessing the vessel, and a housing envelope that is arranged to house the vessel, the cooling envelope and the thermally insulating envelope, said housing envelope comprising an opening for accessing the vessel and a breathable water-permeable layer that allows moisture and/or water to cross the envelope; wherein the two water-permeable layers (110, 120) of the cooling layer are arranged to bound an enclosure containing an absorbent and moisture-wicking material, and further wherein the absorbent and moisture-wicking material is arranged to cool the vessel via evaporation of water.
A combination of an FGFR4 inhibitor with a bile acid sequestrant, for use in the treatment of diseases, wherein the FGFR4 inhibitor is an anti-FGFR4 antibody and wherein the bile acid sequestrant is colestyramine.
A fabric comprising an elastic yarn having an elastomeric core and a non-elastomeric yarn, the latter being arranged around said elastomeric core to cover it at least partially, characterized in that said non-elastomeric yarn covering at least partially the elastomeric core is a yarn obtained from fibers of oxygenating polymer which is suitable to raise the oxygen level in the blood of a person wearing said fabric; said elastomeric core having a linear mass density comprised in the range from 22,2 to 80,9 dtex (20 to 80 dens) and said oxygenating yarn having a linear mass density comprised between 11.1 to 155.6 dtex (10 and 140 dens), more preferably between 22.2 to 100 dtex (20 and 90 dens).
A phosphor comprising a crystalline metal borate that contains an IIA-Group element or zinc, boron, and oxygen, the phosphor comprising a configuration in which particles containing the crystalline metal borate are present in contact with the surface of a sulfur-containing phosphor containing sulfur in a host material, or a configuration in which a glass coating layer containing a glass composition is present on the surface of the sulfur-containing phosphor containing sulfur in a host material, and the crystalline metal borate is present on the surface of the glass coating layer, or a configuration in which particles or a layer containing a ZnO compound is present on the surface of the sulfur-containing phosphor containing sulfur in a host material, and the crystalline metal borate is present on the outside of the particles or the layer containing the ZnO compound. a configuration in which particles containing the crystalline metal borate are present in contact with the surface of a sulfur-containing phosphor containing sulfur in a host material, or a configuration in which a glass coating layer containing a glass composition is present on the surface of the sulfur-containing phosphor containing sulfur in a host material, and the crystalline metal borate is present on the surface of the glass coating layer, or a configuration in which particles or a layer containing a ZnO compound is present on the surface of the sulfur-containing phosphor containing sulfur in a host material, and the crystalline metal borate is present on the outside of the particles or the layer containing the ZnO compound.
Use of a kit in the in vitro detection or diagnosis of pancreatic cancer, wherein the kit comprises a nucleic acid(s) capable of specifically binding to a polynucleotide of the pancreatic cancer marker miR-665 or to a complementary strand of the polynucleotide.
Electrical connector designed to be connected to the edge section of a printed circuit board comprising: • at least one metal strip designed to be in contact with an electrical track placed on a second face of the board of the printed circuit, • at least one holding means designed to hold the electrical connector on the edge section of the board of the printed circuit, characterized in that a first face of the printed circuit board is placed in contact with a support and the said at least one metal strip is designed to exert a pinching force (Fp) on the printed circuit board so as to hold it in contact with the support and in order to limit the movement of the electrical connector and of the printed circuit board with respect to the support in at least one direction perpendicular to the faces (2a, 2b) of the board of the printed circuit. • at least one metal strip designed to be in contact with an electrical track placed on a second face of the board of the printed circuit, • at least one holding means designed to hold the electrical connector on the edge section of the board of the printed circuit,
Device that has an individual emergency switch-off function and that comprises: an energy source for providing electrical energy, a load, which can be supplied with energy via the energy source, a first switch, which is arranged between the energy source and the load and which, in the open state, interrupts the supply of energy to the load, a second switch, which is arranged downstream of the first switch between the energy source and the load and which, in the open state, interrupts the supply of energy to the load, and a logic unit, which is configured to actuate the first switch and the second switch, wherein the logic unit is additionally configured: to open the second switch in the event of an emergency switch-off request in order to separate the load from the energy source and to check whether opening the second witch has led to a separation of the energy source from the load and, if not, to open the first switch, characterised in that at least one further load is connected to the energy source via a branch disposed downstream of first switch and upstream of the second switch, wherein the further load has a further switch, which controls the power supply to the further load independently of the first switch, and the further switch is controllable by the logic unit. an energy source for providing electrical energy, a load, which can be supplied with energy via the energy source, a first switch, which is arranged between the energy source and the load and which, in the open state, interrupts the supply of energy to the load, a second switch, which is arranged downstream of the first switch between the energy source and the load and which, in the open state, interrupts the supply of energy to the load, and a logic unit, which is configured to actuate the first switch and the second switch, wherein the logic unit is additionally configured: to open the second switch in the event of an emergency switch-off request in order to separate the load from the energy source and to check whether opening the second witch has led to a separation of the energy source from the load and, if not, to open the first switch, characterised in that at least one further load is connected to the energy source via a branch disposed downstream of first switch and upstream of the second switch, wherein the further load has a further switch, which controls the power supply to the further load independently of the first switch, and the further switch is controllable by the logic unit. to open the second switch in the event of an emergency switch-off request in order to separate the load from the energy source and to check whether opening the second witch has led to a separation of the energy source from the load and, if not, to open the first switch, characterised in that at least one further load is connected to the energy source via a branch disposed downstream of first switch and upstream of the second switch, wherein the further load has a further switch, which controls the power supply to the further load independently of the first switch, and the further switch is controllable by the logic unit.
A white organic light emitting device (200, 300) comprising: a first emission part between a first electrode and a second electrode, comprising a first hole transport layer and a first electron transport layer; and a second emission part on the first emission part, comprising a second hole transport layer and a second electron transport layer, wherein at least one among the first emission part and the second emission part comprises at least two stacked emission layers (114, 115, 124, 125) and an emission area control layer (EACL) (190, 290), wherein the at least two stacked emission layers (114, 115, 124, 125) comprise a red emission layer and a yellow-green emission layer, the EACL (190, 290) providing separation for emission areas of the at least two stacked emission layers (114, 115, 124, 125) and including a second host different from a first host included in the yellow-green emission layer, wherein a dopant of the EACL (190, 290) is the same as a dopant of the yellow-green emission layer of the at least two stacked emission layers (114, 115, 124, 125), wherein the emission areas of the at least two stacked emission layers (114, 115, 124, 125) are separated based on a difference between a hole mobility of a host of the EACL (190, 290) and a hole mobility of the host of the yellow-green emission layer, and wherein the hole mobility of the host of the EACL (190, 290) is faster than the hole mobility of the host of the yellow-green emission layer. a first emission part between a first electrode and a second electrode, comprising a first hole transport layer and a first electron transport layer; and a second emission part on the first emission part, comprising a second hole transport layer and a second electron transport layer, wherein at least one among the first emission part and the second emission part comprises at least two stacked emission layers (114, 115, 124, 125) and an emission area control layer (EACL) (190, 290), wherein the at least two stacked emission layers (114, 115, 124, 125) comprise a red emission layer and a yellow-green emission layer, the EACL (190, 290) providing separation for emission areas of the at least two stacked emission layers (114, 115, 124, 125) and including a second host different from a first host included in the yellow-green emission layer, wherein a dopant of the EACL (190, 290) is the same as a dopant of the yellow-green emission layer of the at least two stacked emission layers (114, 115, 124, 125), wherein the emission areas of the at least two stacked emission layers (114, 115, 124, 125) are separated based on a difference between a hole mobility of a host of the EACL (190, 290) and a hole mobility of the host of the yellow-green emission layer, and wherein the hole mobility of the host of the EACL (190, 290) is faster than the hole mobility of the host of the yellow-green emission layer.