mhurhangee/patent-ind-claim-en huggingface dataset:
A bench top incubator (10; 110) comprising: a housing , wherein the housing has an outer volume that is 1.5 m 3 or less; a first tray stack within the housing ; a plurality of slide trays (17; 27; 37; 47), the first tray stack being configured to retain the plurality of slide trays (17; 27; 37; 47) in a vertically stacked arrangement, each slide tray (17; 27; 37; 47) including multiple slide insets , each slide inset being configured to retain and mate with a microscope slide ; a second tray stack within the housing and horizontally adjacent to the first tray stack ; a plurality of plate trays , the second tray stack being configured to retain the plurality of plate trays in a vertically stacked arrangement, each plate tray including one or more plate insets , each plate inset being configured to retain and mate with a multi-well plate ; and a temperature control system ; wherein the bench top incubator (10; 110) is free of gas flow systems. a housing , wherein the housing has an outer volume that is 1.5 m 3 or less; a first tray stack within the housing ; a plurality of slide trays (17; 27; 37; 47), the first tray stack being configured to retain the plurality of slide trays (17; 27; 37; 47) in a vertically stacked arrangement, each slide tray (17; 27; 37; 47) including multiple slide insets , each slide inset being configured to retain and mate with a microscope slide ; a second tray stack within the housing and horizontally adjacent to the first tray stack ; a plurality of plate trays , the second tray stack being configured to retain the plurality of plate trays in a vertically stacked arrangement, each plate tray including one or more plate insets , each plate inset being configured to retain and mate with a multi-well plate ; and a temperature control system ; wherein the bench top incubator (10; 110) is free of gas flow systems.
A process for producing a toner for development of electrostatic images, comprising the following steps to : step : subjecting a polyhydric alcohol component and a polycarboxylic acid component to polycondensation reaction in the presence of a hydroxy group- or carboxy group-containing hydrocarbon wax (W1) to obtain a non-crystalline resin (A) comprising a constitutional component derived from the hydrocarbon wax (W1) and also comprising a polyester moiety; step : dispersing the non-crystalline resin (A) obtained in the step in an aqueous medium to obtain an aqueous dispersion of resin particles (X); step : aggregating the resin particles (X) obtained in the step in an aqueous medium in the presence of a crystalline polyester (B) to obtain aggregated particles; and step : coalescing the aggregated particles obtained in the step . step : subjecting a polyhydric alcohol component and a polycarboxylic acid component to polycondensation reaction in the presence of a hydroxy group- or carboxy group-containing hydrocarbon wax (W1) to obtain a non-crystalline resin (A) comprising a constitutional component derived from the hydrocarbon wax (W1) and also comprising a polyester moiety; step : dispersing the non-crystalline resin (A) obtained in the step in an aqueous medium to obtain an aqueous dispersion of resin particles (X); step : aggregating the resin particles (X) obtained in the step in an aqueous medium in the presence of a crystalline polyester (B) to obtain aggregated particles; and step : coalescing the aggregated particles obtained in the step .
A method of manufacturing a bullnose tile, comprising: cutting a field tile into a bullnose form, whereby the cut reveals the undecorated base of the tile, said field tile being a fired tile with a decoration on the top of this tile; coating at least one of a tie coat or a base coat on the bullnose edge of the bullnose tile; curing the at least one of the tie coat or the base coat; printing a decorative coat comprising print media on a bullnose edge of the bullnose tile; curing the print media; wherein the method further comprises coating a protective coat on the bullnose edge of the bullnose tile; and curing the protective coat. cutting a field tile into a bullnose form, whereby the cut reveals the undecorated base of the tile, said field tile being a fired tile with a decoration on the top of this tile; coating at least one of a tie coat or a base coat on the bullnose edge of the bullnose tile; curing the at least one of the tie coat or the base coat; printing a decorative coat comprising print media on a bullnose edge of the bullnose tile; curing the print media; wherein the method further comprises coating a protective coat on the bullnose edge of the bullnose tile; and curing the protective coat.
A method of detecting and classifying atrial fibrillations, AFs, the method comprising: monitoring an electro-cardiogram, ECG, signal of a patient for a prescribed monitoring period; detecting atrial fibrillation, AF, episodes during the prescribed monitoring period based on the monitored ECG signal; monitoring one or more physiological parameters to determine an activity level of the patient during the prescribed monitoring period; associating a detected AF episode with the activity level of the patient at a time of the detected AF episode; in response to a detected AF episode during a period of patient activity, incrementing a count of active AF episodes detected within the prescribed monitoring period, in response to a detected AF episode during a period of patient rest, incrementing a count of resting AF episodes detected within the prescribed monitoring period; classifying a cause of the detected AF episodes as adrenergic if detected AF episodes occur when the patient is active and classifying the cause of the detected AF episodes as vagal if detected AF episodes occur when the patient is at rest, wherein classifying the cause of the detected AF episodes as adrenergic or vagal is based on the count of active AF episodes and the count of resting episodes detected with the prescribing monitoring period; and generating a report regarding the determined classification of the AF episodes. monitoring an electro-cardiogram, ECG, signal of a patient for a prescribed monitoring period; detecting atrial fibrillation, AF, episodes during the prescribed monitoring period based on the monitored ECG signal; monitoring one or more physiological parameters to determine an activity level of the patient during the prescribed monitoring period; associating a detected AF episode with the activity level of the patient at a time of the detected AF episode; in response to a detected AF episode during a period of patient activity, incrementing a count of active AF episodes detected within the prescribed monitoring period, in response to a detected AF episode during a period of patient rest, incrementing a count of resting AF episodes detected within the prescribed monitoring period; classifying a cause of the detected AF episodes as adrenergic if detected AF episodes occur when the patient is active and classifying the cause of the detected AF episodes as vagal if detected AF episodes occur when the patient is at rest, wherein classifying the cause of the detected AF episodes as adrenergic or vagal is based on the count of active AF episodes and the count of resting episodes detected with the prescribing monitoring period; and generating a report regarding the determined classification of the AF episodes.
A method for making an admixture in liquid form for concrete comprising: providing a nanocarbon mixture as a carbon powder comprising at least two different types of nanocarbon particles selected from the group consisting of carbon nanotube particles, carbon nanofiber particles, graphene particles, graphite particles, carbon black, "amorphous" paracrystalline carbon particles, polycrystalline carbon particles, nanodiamonds, single-layer fullerene particles, and multi-layer fullerene particles; wetting and mixing the carbon powder into a water/surfactant mixture comprised of water and a surfactant configured to de-agglomerate and uniformly disperse the nanocarbon particles in the water/surfactant mixture containing the carbon powder configured for addition to a concrete material comprising a cementitious material, blending the nanocarbon mixture with a nano-silica based compound, wherein quantities of the nanocarbon mixture, superplasticizer surfactant, nano-silica based compound and water in the admixture are: nanocarbon mixture 0.4% to 1.9% mass percentage of total mass of admixture, superplasticizer surfactant 2% to 9% mass percentage of total mass of admixture, nano-silica based compound 5% to 21% mass percentage of total mass of admixture, and water 57% to 93% mass percentage of total mass of admixture. providing a nanocarbon mixture as a carbon powder comprising at least two different types of nanocarbon particles selected from the group consisting of carbon nanotube particles, carbon nanofiber particles, graphene particles, graphite particles, carbon black, "amorphous" paracrystalline carbon particles, polycrystalline carbon particles, nanodiamonds, single-layer fullerene particles, and multi-layer fullerene particles; wetting and mixing the carbon powder into a water/surfactant mixture comprised of water and a surfactant configured to de-agglomerate and uniformly disperse the nanocarbon particles in the water/surfactant mixture containing the carbon powder configured for addition to a concrete material comprising a cementitious material, blending the nanocarbon mixture with a nano-silica based compound, wherein quantities of the nanocarbon mixture, superplasticizer surfactant, nano-silica based compound and water in the admixture are: nanocarbon mixture 0.4% to 1.9% mass percentage of total mass of admixture, superplasticizer surfactant 2% to 9% mass percentage of total mass of admixture, nano-silica based compound 5% to 21% mass percentage of total mass of admixture, and water 57% to 93% mass percentage of total mass of admixture. nanocarbon mixture 0.4% to 1.9% mass percentage of total mass of admixture, superplasticizer surfactant 2% to 9% mass percentage of total mass of admixture, nano-silica based compound 5% to 21% mass percentage of total mass of admixture, and water 57% to 93% mass percentage of total mass of admixture.
Installation for holding and/or emergency opening of a leaf of a door, a window or the like, comprising a drive with at least one mechanical energy store which is charged by an opening movement of the leaf and discharged with a closing movement of the leaf , comprising at least one electric motor , the motor shaft of which is operatively connected to the leaf , and comprising an open-loop and/or closed-loop electronics system for actuating the electric motor , wherein the electric motor can be actuated by means of the open-loop and/or closed-loop electronics system both for generator damping of the leaf movements and also against the force of the mechanical storage device for holding of the leaf and/or for electromotive emergency opening of the leaf by way of the electric motor additionally being able to be supplied with external electrical energy from an external device , such as in particular a smoke switch control centre, a smoke and heat exhaust control centre or the like, for holding and/or emergency opening of the leaf, and wherein the drive comprises an electrical energy store which can be charged by means of an electric motor , which is operatively connected to the leaf by means of its motor shaft and can be operated as a generator, and can be supplied with energy by means of the open-loop and/or closed-loop control electronics system ; wherein the open-loop and/or closed-loop control electronics system comprises a damping circuit with at least one switching element which can be actuated by means of an open-loop and/or closed-loop control unit and by means of which the motor terminals of the electric motor , which is connected to the electrical damping circuit , can be shorted for generator damping of the leaf movements; characterized in that the electric motor is actuated by means of the open-loop and/or closed-loop control electronics system depending on an external control signal , which is formed by an output signal from the external device , for holding and/or emergency opening of the leaf and supplied with the external electrical energy via the external control signal , and in that the open-loop and/or closed-loop control electronics system comprises a switchover unit which can be switched over between a first switching state, in which the motor terminals of the electric motor are connected to the electrical damping circuit for generator damping of the leaf movements, and a second switching state, in which the motor terminals of the electric motor are connected to a voltage , supplied by the external electrical energy, for holding of the leaf in an, in particular predefinable, holding position and/or for electromotive emergency opening of the leaf .
A water vapor permeable membrane comprising a dense layer and a support layer that are adjacent to each other, wherein said dense layer contains voids with a length of 0.1 μm or less and said layer has a thickness of 0.1 μm or more and 2 μm or less; wherein in said support layer, void (a), being the void with the largest length in the 2 μm thick region measured from the boundary between the dense layer and the support layer into the support layer, has a length of 0.3 μm or more and void (b), being the void with the largest length in the region ranging between 2 μm and 4 μm measured from said boundary into the support layer, has a length of 0.5 μm or more, the length of said void (b) being larger than that of said void (a) and said support layer contains voids that have an internal dimension in the thickness direction of the water vapor permeable membrane equivalent to 30% or more of the thickness of the water vapor permeable membrane, such voids being referred to as voids (c); wherein the void lengths are defined as the maximum internal dimension of a void observed in the cross section of the membrane when measured as described in the Examples in the specification; wherein the membrane comprises polysulfone; and wherein the water vapor permeable membrane is obtained by using, as a core liquid, a solution that can aggregate or coagulate the raw material solution for membrane production and discharging a raw material solution for membrane production which has a viscosity of 5 to 30 poise and contains polysulfone resin at a concentration of 10 mass % or more and 25 mass % or less from a nozzle and bringing a poor solvent into contact with the raw material solution for membrane production immediately after the raw material solution for membrane production is discharged from the nozzle and coagulating the raw material solution to form the water vapor permeable membrane.
A rotary column for capping bottles , comprising a rotating and a non-rotating member, and a reducer group mounted via bearings to a main drive shaft , wherein at the upper end of the main drive shaft an upper guiding member is placed, wherein screwing devices are located at and under the upper guiding member , symmetrically with respect to its axis, wherein a main bearing body is attached to the main drive shaft under the upper guiding member and above the reducer group , a cam being mounted to the main drive shaft under the main bearing body , the cam being centered to an irremovable flange which is attached to a support member ; wherein a main bearing is mounted to the upper part of the irremovable flange , the main bearing separating the rotating member of the rotary column from the non-rotating one; wherein the reducer group comprises an electric motor and a main gear wheel , the reducer group with the electric motor , the main gear wheel and the cam being located at the non-rotating member under the support member ; wherein the screwing devices are centered both to the main bearing body and the upper guiding member , the control of each screwing device being executed by the cam through a first drive roller mounted at the lower end of the respective screwing device and housed in a first notch made in the cam ; wherein a gear wheel is placed in the lower part of each drive shaft , engaged with the reducer group , from which the torque is imparted through the drive shafts to adjustable torque clutches ; characterized in that changeable tips are attached to the lower parts of these clutches ; in that each drive shaft of a screwing device is positioned coaxially to a pusher , a second drive roller being mounted at the lower end of said pusher , said second drive roller being housed in a second notch made in the cam , said pusher being connected at its upper end to one end of a lever , said lever being connected at its other end to a second pusher ; wherein the upper end of the first pusher and the upper end of the second pusher are housed in a safe-box together with a first toothed belt pulley , a second toothed belt pulley and a toothed belt , wherein at the upper end of the safe-box there are a fixing axis and an upper guiding member which help for the stable guidance of the screwing device in a vertical direction; and in that changeable holders positioned along the periphery of one or more cylinder holders attached to the main drive shaft of the rotary column are used for gripping and carrying the bottles .
A pickup roller comprising: a supporting layer ; and a pickup layer , which comprises: a base surrounding the outer perimeter of the supporting layer and formed from an elastic material; and a plurality of particles which are distributed throughout the base and have a hardness different from the hardness of the base , characterised in that the plurality of particles are formed from the elastic material. a supporting layer ; and a pickup layer , which comprises: a base surrounding the outer perimeter of the supporting layer and formed from an elastic material; and a plurality of particles which are distributed throughout the base and have a hardness different from the hardness of the base , a base surrounding the outer perimeter of the supporting layer and formed from an elastic material; and a plurality of particles which are distributed throughout the base and have a hardness different from the hardness of the base , characterised in that the plurality of particles are formed from the elastic material.
A governor of an elevator, comprising a rope sheave ; a ratchet wheel ; and a centrifugal mechanism , a trip bar , and a rotatable pawl which are mounted on the rope sheave , the governor being able to work in a first state in which the rope sheave freely rotates with respect to the ratchet wheel or in a second state in which a safety gear is actuated; in the second state, the pawl being located in a first position in which a pawl head thereof mechanically acts on the ratchet wheel , so that rotation of the rope sheave in a first direction can act on the ratchet wheel via the pawl head ; characterized in that the governor further comprises a reset push part which is disposed on the ratchet wheel and used for resetting the governor from the second state to the first state, wherein the reset push part and the pawl are set in such a manner that when the rope sheave rotates in a second direction (N1) opposite to the first direction, the reset push part pushes the pawl to reset the pawl to a position corresponding to the first state.
A method for forming a laminate , the method comprising: indexing a layup mandrel to a lamination station disposed at a first location ; transporting the lamination station and the layup mandrel in a process direction from the first location towards a second location ; laying up the laminate having layers of fiber-reinforced material onto the layup mandrel via a lamination machine while the lamination machine and the layup mandrel are transported in the process direction ; removing the layup mandrel and the laminate at the second location ; and returning the lamination station to the first location for laying up an additional laminate onto a new layup mandrel . indexing a layup mandrel to a lamination station disposed at a first location ; transporting the lamination station and the layup mandrel in a process direction from the first location towards a second location ; laying up the laminate having layers of fiber-reinforced material onto the layup mandrel via a lamination machine while the lamination machine and the layup mandrel are transported in the process direction ; removing the layup mandrel and the laminate at the second location ; and returning the lamination station to the first location for laying up an additional laminate onto a new layup mandrel .
A method of charging a battery comprising: receiving, in a battery charging circuit on an electronic device , an input voltage (V in ) having a first voltage value from an external power source ; configuring the battery charging circuit to produce an output current of the battery charging circuit having a first current value to charge the battery ; monitoring one or more of an input current limit and a voltage ratio (V out /V in ) of an output voltage (V out ) and the input voltage (Vin) of the battery charging circuit ; generating control signals to increase the first voltage value of the input voltage (Vin) from the external power source to at least one second voltage value if either (i) the input current limit is activated since a maximum input current is reached, or (ii) the voltage ratio (V out /V in ) reaches a maximum voltage ratio; receiving signals indicating a temperature inside the electronic device ; and generating control signals to decrease the second voltage value to at least one third voltage value when the temperature increases above a first threshold temperature. receiving, in a battery charging circuit on an electronic device , an input voltage (V in ) having a first voltage value from an external power source ; configuring the battery charging circuit to produce an output current of the battery charging circuit having a first current value to charge the battery ; monitoring one or more of an input current limit and a voltage ratio (V out /V in ) of an output voltage (V out ) and the input voltage (Vin) of the battery charging circuit ; generating control signals to increase the first voltage value of the input voltage (Vin) from the external power source to at least one second voltage value if either (i) the input current limit is activated since a maximum input current is reached, or (ii) the voltage ratio (V out /V in ) reaches a maximum voltage ratio; (i) the input current limit is activated since a maximum input current is reached, or (ii) the voltage ratio (V out /V in ) reaches a maximum voltage ratio; receiving signals indicating a temperature inside the electronic device ; and generating control signals to decrease the second voltage value to at least one third voltage value when the temperature increases above a first threshold temperature.