mhurhangee/patent-ind-claim-en huggingface dataset:
A heating, ventilation, air conditioning, and refrigeration (HVACR) system, comprising: a refrigerant circuit , including: a variable speed compressor , a condenser , an expansion device , and an evaporator fluidly connected, the variable speed compressor including a bearing; characterized in that the refrigerant circuit further includes: a controller electronically connected to the variable speed compressor , the controller configured to: determine a speed setting for the variable speed compressor based on a cooling requirement, and prevent the compressor from operating at a speed that is less than a minimum speed limit based on a saturated suction temperature, a saturated discharge temperature, and a lubricant temperature. a refrigerant circuit , including: a variable speed compressor , a condenser , an expansion device , and an evaporator fluidly connected, the variable speed compressor including a bearing; characterized in that the refrigerant circuit further includes: a controller electronically connected to the variable speed compressor , the controller configured to: determine a speed setting for the variable speed compressor based on a cooling requirement, and prevent the compressor from operating at a speed that is less than a minimum speed limit based on a saturated suction temperature, a saturated discharge temperature, and a lubricant temperature.
A structure for ballistic application comprising: a first outer layer comprising a strike face of the structure ; a second outer layer comprising a back face of the structure ; and a series of alternating intermediate layers and polymer fiber composite layers between the first and second outer layers, wherein the stiffness of the intermediate layers located adjacent to the strike face is greater than the stiffness of the intermediate layers located adjacent to the back face , wherein the intermediate layers and the second outer layer have a reduced thickness relative to the thickness of the polymer fiber composite layers , and wherein the second outer layer has a higher stiffness than the polymer fiber composite layers . a first outer layer comprising a strike face of the structure ; a second outer layer comprising a back face of the structure ; and a series of alternating intermediate layers and polymer fiber composite layers between the first and second outer layers,
A personal care composition comprising: a) azoxystrobin; b) a 2-pyridinol-N-oxide material, wherein the 2-pyridinol-N-oxide material is piroctone olamine; wherein the weight ratio of a:b is from 4:1 to 1:50. a) azoxystrobin; b) a 2-pyridinol-N-oxide material, wherein the 2-pyridinol-N-oxide material is piroctone olamine;
A method of wireless communication at a user equipment, UE, , comprising: determining a clear channel assessment, CCA, threshold corresponding to at least one bandwidth, the at least one bandwidth being associated with a channel occupancy time, COT, sharing procedure; adjusting the CCA threshold corresponding to the at least one bandwidth based on at least one of one or more sensing bandwidths or one or more granted resources for the COT sharing procedure; and signaling the adjusted CCA threshold corresponding to the at least one bandwidth to at least one of a node or a base station. determining a clear channel assessment, CCA, threshold corresponding to at least one bandwidth, the at least one bandwidth being associated with a channel occupancy time, COT, sharing procedure; adjusting the CCA threshold corresponding to the at least one bandwidth based on at least one of one or more sensing bandwidths or one or more granted resources for the COT sharing procedure; and signaling the adjusted CCA threshold corresponding to the at least one bandwidth to at least one of a node or a base station.
A method of preparing a glass material containing a lithium salt crystalline phase and a phosphate crystalline phase, wherein for the entire material, crystallinity is up to 90%, the lithium salt crystalline phase accounts for 40-90 wt% of the entire material, and the phosphate crystalline phase accounts for 2-15 wt% of the entire material, wherein the lithium salt crystalline phase is one or more of lithium silicate, lithium disilicate and petalite, and wherein the phosphate crystalline phase is aluminum phosphate or/and aluminum metaphosphate characterized by comprising the steps of: step 1, uniformly mixing the following raw materials in percentage by mass: 68-74% of SiO 2 , 4-10% of Al 2 O 3 , 8-12% of Li 2 O, 0.1-3% of Na 2 O, 0.1-1% of K 2 O and 3-9% of P 2 O 5 , and putting a mixture in a platinum or alumina crucible; step 2, heating the mixture for 10-30h in an electric furnace at a temperature ranging from 1250°C to 1450°C for uniformly melting the mixture, and forming a basic glass plate with a thickness of 0.2-2mm with a cast ingot cutting method and a rolling process; and step 3, implementing thermal treatment on the obtained basic glass plate in order to conduct nucleation and crystal growth, and preparing the glass material. step 1, uniformly mixing the following raw materials in percentage by mass: 68-74% of SiO 2 , 4-10% of Al 2 O 3 , 8-12% of Li 2 O, 0.1-3% of Na 2 O, 0.1-1% of K 2 O and 3-9% of P 2 O 5 , and putting a mixture in a platinum or alumina crucible; step 2, heating the mixture for 10-30h in an electric furnace at a temperature ranging from 1250°C to 1450°C for uniformly melting the mixture, and forming a basic glass plate with a thickness of 0.2-2mm with a cast ingot cutting method and a rolling process; and step 3, implementing thermal treatment on the obtained basic glass plate in order to conduct nucleation and crystal growth, and preparing the glass material.
Conveyor belt system comprising a frame with a conveyor belt which is provided so as to be driven by at least two rollers so that an upper belt functions as transport surface and a lower belt functions as return, wherein the frame has an upper segment extending substantially above the upper belt and a lower segment extending substantially under the upper belt , wherein the upper segment has at least two upper standing walls with a mutual spacing which, at least at the position of the upper belt , is smaller than the width of the conveyor belt , wherein the lower segment has at least two lower standing walls with a mutual spacing which is greater than the width of the conveyor belt, wherein the upper belt is supported on either side by a plate extending respectively from below the upper belt to an outer side of the lower standing wall , and wherein the plate has a first segment for supporting the upper belt , characterized in that the plate has a second segment for discharging contaminants, wherein the second segment drains at least partially away from the conveyor belt, seen in a transverse direction of the conveyor belt system.
A storage system , comprising a plurality of storage bays for receiving storable goods , the storage bays being arranged in at least one storage level (LE), and one or more associated handling devices (19, 20, 21; 36, 38), with which the storage bays can be accessed in order to store storable goods in the storage bays or retrieve them from these storage bays; wherein for storing and retrieving the storable goods , in addition a conveyor is provided, which is designed as a continuous conveyor that forms a continuously closed loop, and which is led on at least one storage level (LE) through the arrangement of the storage bays ; wherein the storage bays are arranged on superposed storage levels in high racks (11, 12, 13, 14; 31, 32, 33, 34) that are spaced apart from one another, thereby forming rack aisles , wherein horizontally and vertically movable rack storage and retrieval units (19, 20, 21; 36, 38) are provided as handling devices in the rack aisles between the high racks, with which each of the storage bays can be accessed for storing and/or retrieving storable goods , and wherein the conveyor is led at least once through the high racks (11, 12, 13, 14; 31, 32, 33, 34) on a storage level (LE); wherein in a storage level (LE) the high racks (11, 12, 13, 14; 31, 32, 33, 34) in each case have two storage bays arranged one behind the other, transverse to the rack aisle , wherein the conveyor is led on the particular storage level (LE) through the particular high rack (11, 12, 13, 14; 31, 32, 33, 34), in parallel to the rack aisle , characterized in that in the storage levels (LE) on which the conveyor is led through the particular high rack (11, 12, 13, 14; 31, 32, 33, 34), only one row of storage bays is provided beside the conveyor .
Winch device, in particular for a construction-device assembly, comprising - a winch drum , - a support , on which the winch drum is mounted so as to be rotatable about a rotational axis via a rotary mount , - at least one rotary drive , by means of which the winch drum can be driven to rotate, - wherein the at least one rotary drive is attached to the winch drum and wherein the rotary drive together with the winch drum is rotatable about the rotational axis . characterised in that two rotary drives are arranged in a hub region of the winch drum . - a winch drum , - a support , on which the winch drum is mounted so as to be rotatable about a rotational axis via a rotary mount , - at least one rotary drive , by means of which the winch drum can be driven to rotate, - wherein the at least one rotary drive is attached to the winch drum and wherein the rotary drive together with the winch drum is rotatable about the rotational axis .
A method of selecting from a set of N candidate atlases at least one subset of M candidate atlases for use by at least one medical image auto-contouring system, where the atlas selection is offline; the method comprising: for each candidate atlas n within the set of N candidate atlases , computing at least one auto-contouring performance measure in relation to each training atlas t within at least a subset of a set of T training atlases; for each pair combination of candidate atlas n and training atlas t for which an auto-contouring performance measure has been computed, deriving a score based at least partly on the respective auto-contouring performance measure ; for each candidate atlas n within the set of N candidate atlases , aggregating the derived scores for each pair combination for which an auto-contouring performance measure has been computed for that candidate atlas n; and selecting at least one subset of M candidate atlases from the set of N candidate atlases based at least partly on the most favourable aggregated scores therefor. for each candidate atlas n within the set of N candidate atlases , computing at least one auto-contouring performance measure in relation to each training atlas t within at least a subset of a set of T training atlases; for each pair combination of candidate atlas n and training atlas t for which an auto-contouring performance measure has been computed, deriving a score based at least partly on the respective auto-contouring performance measure ; for each candidate atlas n within the set of N candidate atlases , aggregating the derived scores for each pair combination for which an auto-contouring performance measure has been computed for that candidate atlas n; and selecting at least one subset of M candidate atlases from the set of N candidate atlases based at least partly on the most favourable aggregated scores therefor.
A device for closing and opening doors and/or hatches of household appliances such as washing machines, dishwashers and similar household appliances, said device comprising a main body from which an engagement portion extends, adapted to be introduced through and to be removed from a through opening of a wall of said household appliance , said through opening being delimited by a first substantially rectilinear edge and a second substantially rectilinear edge which is parallel to said first edge , wherein said engagement portion comprises an intermediate portion which extends from said main body and an end portion which extends from said intermediate portion , said intermediate portion being externally delimited by a first engagement surface and a second end surface which are opposite and parallel to the extension direction of said intermediate portion from which a first contact surface and a second contact surface , respectively, of said end portion extend substantially perpendicular to said extension direction of said intermediate portion , and wherein said device comprises a slider which can translate with respect to said intermediate portion ; wherein said slider can translate with respect to said intermediate portion along a translation direction which is substantially perpendicular to said first engagement surface and second end surface of said intermediate portion between a first end position and a second end position and wherein said slider comprises an own end surface which is parallel to both said first engagement surface and second end surface of said intermediate portion , wherein with said slider in said first end position, said own end surface of said slider is placed at a first distance from said first engagement surface of said intermediate portion , and wherein with said slider in said second end position, said own end surface of said slider is placed at a second distance from said first engagement surface of said intermediate portion which is greater than said first distance, wherein said own end surface of said slider is configured to engage against said second substantially rectilinear edge so as to lock any further translation of said device .
A supplemental lighting element for a vehicle comprising: a circuit board defining a longitudinal axis of the supplemental lighting element and including at least one illuminator thereon; a housing having an optical element having opposing axial ends along the longitudinal axis, the optical element being in register with the at least one illuminator on the circuit board , and a peripheral wall enveloping a periphery of the circuit board , the housing having at least one inwardly-extending leg having a retainer thereon; a heat sink having at least one recess in alignment with the at least one inwardly-extending leg on the peripheral wall of the housing; and a thermal pad positioned between the circuit board and the heat sink ; wherein the inwardly-extending leg is positioned between opposing circuit board and heat sink portions, and wherein each of the opposing axial ends are configured to match an axial end of an adjacent supplemental lighting element . a circuit board defining a longitudinal axis of the supplemental lighting element and including at least one illuminator thereon; a housing having an optical element having opposing axial ends along the longitudinal axis, the optical element being in register with the at least one illuminator on the circuit board , and a peripheral wall enveloping a periphery of the circuit board , the housing having at least one inwardly-extending leg having a retainer thereon; a heat sink having at least one recess in alignment with the at least one inwardly-extending leg on the peripheral wall of the housing; and a thermal pad positioned between the circuit board and the heat sink ; wherein the inwardly-extending leg is positioned between opposing circuit board and heat sink portions, and wherein each of the opposing axial ends are configured to match an axial end of an adjacent supplemental lighting element .
A polygon scanner for detecting objects in a monitored area , the polygon scanner having a light transmitter for transmitting a light beam into the monitored area , a light receiver for receiving the light beam reflected from objects in the monitored area , an evaluation unit for evaluating a received signal of the light receiver and a rotatable mirror unit for periodic deflection of the light beam , the mirror unit comprising a plurality of mirror facets in order to scan an angular section a plurality of times per revolution of the mirror unit with a respective mirror facet as a monitoring area , wherein at least some of the mirror facets have a mutually different curvature, characterized in that at least one of the mirror facets is configured as a free-form surface whose curvature is adapted to the angle of incidence of the transmitted light beam on the mirror facet varying during the rotation of the mirror unit and is curved so that a same focal position is set for the varying angles of incidence.
- Supporting structure for installing laid or floating wind energy collection modules, comprising: • at least one base supporting the tower of a wind energy collection module , the main axis (XX') of which is substantially vertical, • at least one stringer which is arranged at the periphery of said base , in a shape selected from triangle, parallelogram and rectangle shapes, in a plane containing said main axis (XX') of the base , and an essentially vertical short side of which is associated with the base through means allowing variation or adjustment of the distance and/or height between the different modules, selected from a slide or at least one articulated parallelogram , an assembly of two adjoining articulated parallelograms, and at least one articulated parallelogram and a slide, • in the case of a laid wind energy collection module , the base is connected to a supporting mass or a mast by said stringer , • at least one supporting mass or mast moored to the structure in the case of floating wind energy collection modules , and • at least one floating caisson connected to the base by said stringer in the case of floating wind energy collection modules . • at least one base supporting the tower of a wind energy collection module , the main axis (XX') of which is substantially vertical, • at least one stringer which is arranged at the periphery of said base , in a shape selected from triangle, parallelogram and rectangle shapes, in a plane containing said main axis (XX') of the base , and an essentially vertical short side of which is associated with the base through means allowing variation or adjustment of the distance and/or height between the different modules, selected from a slide or at least one articulated parallelogram , an assembly of two adjoining articulated parallelograms, and at least one articulated parallelogram and a slide, • in the case of a laid wind energy collection module , the base is connected to a supporting mass or a mast by said stringer , • at least one supporting mass or mast moored to the structure in the case of floating wind energy collection modules , and • at least one floating caisson connected to the base by said stringer in the case of floating wind energy collection modules .
Method, comprising the steps of: - (a) storing data by means of storage means; - (b) receiving input with a sensor of a communication device; - (c) determining with comparing means in response to an emergency signal an outcome of a comparison of the received input to at least a part of the stored data; and - (d) determining subject to the outcome whether communication means of the communication device must be activated so as to make contact with an alarm responder, characterized in that when the comparison has a positive outcome in the case of a match between the received input and at least a part of the data, the method after step (c) is continued from step (b) instead of step (d); and when the comparison has a negative outcome in the case there is no match between the received input and at least a part of the data, the communication device makes contact with the alarm responder in step (d). - (a) storing data by means of storage means; - (b) receiving input with a sensor of a communication device; - (c) determining with comparing means in response to an emergency signal an outcome of a comparison of the received input to at least a part of the stored data; and - (d) determining subject to the outcome whether communication means of the communication device must be activated so as to make contact with an alarm responder,
A teleoperational surgical system comprising: a manipulator configured to be operatively coupled to a medical instrument, the manipulator adapted to control movement of the medical instrument through a cannula component; and a control system communicatively coupled with the manipulator, wherein the control system is operative to determine an insertion profile associated with at least one of the medical instrument and the cannula component, wherein the insertion profile corresponds to an insertion force that varies along a length of the cannula component, and wherein the control system is configured to modulate the insertion force in accordance with the insertion profile and affect motion of the medical instrument during manual insertion of the medical instrument through the cannula component. a manipulator configured to be operatively coupled to a medical instrument, the manipulator adapted to control movement of the medical instrument through a cannula component; and a control system communicatively coupled with the manipulator, wherein the control system is operative to determine an insertion profile associated with at least one of the medical instrument and the cannula component, wherein the insertion profile corresponds to an insertion force that varies along a length of the cannula component, and wherein the control system is configured to modulate the insertion force in accordance with the insertion profile and affect motion of the medical instrument during manual insertion of the medical instrument through the cannula component.
A method for use in a robotic lawnmower configured to operate within a work area according to an operating schedule, the method comprising detecting the presence of living object(s) ; determining a location of where the living object(s) has been detected and adapting the operating schedule accordingly , wherein the method is characterized in that the method further comprises adapting the operating schedule by determining a non-working area around the location of the living object(s), staying out of the non-working area , tracking the living object(s) and adapting a location of the non-working area according to the movements of the living object(s) 270, so that the non-working area overlaps the location of the living object(s). detecting the presence of living object(s) ; determining a location of where the living object(s) has been detected and adapting the operating schedule accordingly , wherein the method is characterized in that the method further comprises adapting the operating schedule by determining a non-working area around the location of the living object(s), staying out of the non-working area , tracking the living object(s) and adapting a location of the non-working area according to the movements of the living object(s) 270, so that the non-working area overlaps the location of the living object(s). determining a non-working area around the location of the living object(s), staying out of the non-working area , tracking the living object(s) and adapting a location of the non-working area according to the movements of the living object(s) 270, so that the non-working area overlaps the location of the living object(s).