mhurhangee/ep-ind-claims huggingface dataset:
Decoration apparatus (1, 1') for decorating a web of labeling material comprising: - conveying means for advancing the web of labeling material between a first station and a second station; - an activation unit adapted to apply an electromagnetic activation energy at a activation station onto the web of labeling material for selectively activating photoactivatable pigments present in the web of labeling material; the activation station being arranged between the first station and the second station; wherein the decoration apparatus (1, 1') comprises a temperature-conditioning unit; - wherein at least a portion of the temperature-conditioning unit is arranged between the first station and the second station; characterized in that: - the activation unit comprises at least one laser assembly adapted to direct at the activation station, in use, a laser irradiation onto the advancing web of labeling material; - the temperature-conditioning unit is adapted to actively cool and heat the web of labeling material, the temperature-conditioning unit being adapted to, in use, cool and heat the web of labeling material prior, during and/or after selective activation of the activatable pigments. - conveying means for advancing the web of labeling material between a first station and a second station; - an activation unit adapted to apply an electromagnetic activation energy at a activation station onto the web of labeling material for selectively activating photoactivatable pigments present in the web of labeling material; the activation station being arranged between the first station and the second station; wherein the decoration apparatus (1, 1') comprises a temperature-conditioning unit; - wherein at least a portion of the temperature-conditioning unit is arranged between the first station and the second station; - the activation unit comprises at least one laser assembly adapted to direct at the activation station, in use, a laser irradiation onto the advancing web of labeling material; - the temperature-conditioning unit is adapted to actively cool and heat the web of labeling material, the temperature-conditioning unit being adapted to, in use, cool and heat the web of labeling material prior, during and/or after selective activation of the activatable pigments.
Process for applying a foaming reaction mixture to a covering layer for producing a composite element using an apparatus comprising at least two casting rakes (200, 260) having a tubular hollow body which extends along a central axis and has at least two exit openings for exit of the foaming reaction mixture, and where the casting rakes (200, 260) and the covering layer are moved relative to one another along a longitudinal axis, characterized in that the central axis of the at least two casting rakes (200, 260) and the longitudinal axis of motion enclose an angle (400, 410) of ≤ 80° relative to one another and a) in that the casting rakes are arranged at angles of equal magnitude relative to the axis of motion of the covering layer or b) in that the magnitude of the angles at which two casting rakes are aligned relative to the direction of motion of the covering layer is different, such that the two casting rakes are arranged relative to one another in the form of an asymmetric V. a) in that the casting rakes are arranged at angles of equal magnitude relative to the axis of motion of the covering layer or b) in that the magnitude of the angles at which two casting rakes are aligned relative to the direction of motion of the covering layer is different, such that the two casting rakes are arranged relative to one another in the form of an asymmetric V.
A spindle lock for limiting the motion of window blinds, rolling shutters, and the like, having a spindle having a male thread, a driving nut running on said male thread and guided in a crankcase, and two stop devices limiting the travel path of the driving nut, wherein the stop devices are formed by a stop (8, 9) of the driving nut and by a counterpart stop (13, 17) of clamping rings (10, 14), of which at least one clamping ring is adjustable lengthwise on the hollow spindle, characterized in that the clamping ring of the one stop device is located on one end of the hollow spindle; that on that end, the hollow spindle has a longitudinal rib; that the clamping ring has at least two longitudinal grooves (18 1, 18 2, 18 3) of different length that fit the longitudinal rib; and that the clamping ring in at least two rotated positions is correspondingly fixable in axially differing positions on the end of the hollow spindle.
An electrical power inverter assembly, comprising: a wound film DC link capacitor in the form of an annular ring having an outer diameter that is greater than a thickness of said annular ring and an inner diameter, said annular ring having a depth; a plurality of electrically conductive contacts (103, 104) distributed equally around the annular ring on opposing end faces of said DC link capacitor; and characterized in that it comprises one or more electrical power control components (102; 106A, 106B) distributed around an inner or outside circumference of said annular ring and electrically connected with said contacts (103, 104) on said DC link capacitor to effect a reduction in circuit inductance and to uniformly distribute current flow in the DC link capacitor in order to minimize power losses therein, and said annular ring depth being selected to minimize the length of said electrical connection between each of the electrical power control components and said electrically conductive contacts to which it is connected. a wound film DC link capacitor in the form of an annular ring having an outer diameter that is greater than a thickness of said annular ring and an inner diameter, said annular ring having a depth; a plurality of electrically conductive contacts (103, 104) distributed equally around the annular ring on opposing end faces of said DC link capacitor; and characterized in that it comprises one or more electrical power control components (102; 106A, 106B) distributed around an inner or outside circumference of said annular ring and electrically connected with said contacts (103, 104) on said DC link capacitor to effect a reduction in circuit inductance and to uniformly distribute current flow in the DC link capacitor in order to minimize power losses therein, and said annular ring depth being selected to minimize the length of said electrical connection between each of the electrical power control components and said electrically conductive contacts to which it is connected.
Coating device with a coating chamber, in which at least one coating agent is envisaged, which applies a coating to the coating surface of a workpiece moving through the coating chamber along a transport direction (x), wherein an underpressure prevails in the coating chamber, and the coating chamber is delimited by an inlet and an outlet matrix, characterised in that the coating surface is delimited by at least one tool (6, 7) with a tear-off edge, and in that the tool(s) (6, 7) is/are stored outside of the coating chamber, wherein the underpressure between the tear-off edge of the tool (6, 7) and the workpiece forms an air stream at least some of the time for forming a limit line, up to which the coating of the workpiece is realised, wherein the air stream is envisaged in such a way that it tears off at the tear-off edge.
An apparatus for at least one of perfusion and transport of an organ or tissue, the apparatus comprising: an organ container for storing the organ or tissue, the organ container being configured to be inserted into the apparatus and comprising: a basin configured to hold the organ or tissue and a perfusate bath; and tubing that (i) is connectable to a source of oxygen, (ii) includes a plurality of holes by which the oxygen may exit the tubing, and (iii) is located within the basin so as to be submerged within the perfusate bath present during the perfusion or transport of the organ or tissue; and an oxygen line configured to convey oxygen from a source of oxygen to the tubing, a first end of the oxygen line being within the basin of the organ container and a second end of the oxygen line being outside the basin, the apparatus further comprising: a first external lid configured to cover the basin when closed; and a second external lid, adjacent the first external lid, and configured to cover other components of the apparatus when closed, wherein the oxygen line is able to convey oxygen from the oxygen source to the tubing when the first external lid is closed, and wherein the second end of the oxygen line is exposed even when the first external lid is closed. an organ container for storing the organ or tissue, the organ container being configured to be inserted into the apparatus and comprising: a basin configured to hold the organ or tissue and a perfusate bath; and tubing that (i) is connectable to a source of oxygen, (ii) includes a plurality of holes by which the oxygen may exit the tubing, and (iii) is located within the basin so as to be submerged within the perfusate bath present during the perfusion or transport of the organ or tissue; and a basin configured to hold the organ or tissue and a perfusate bath; and tubing that (i) is connectable to a source of oxygen, (ii) includes a plurality of holes by which the oxygen may exit the tubing, and (iii) is located within the basin so as to be submerged within the perfusate bath present during the perfusion or transport of the organ or tissue; and an oxygen line configured to convey oxygen from a source of oxygen to the tubing, a first end of the oxygen line being within the basin of the organ container and a second end of the oxygen line being outside the basin, the apparatus further comprising: a first external lid configured to cover the basin when closed; and a second external lid, adjacent the first external lid, and configured to cover other components of the apparatus when closed, wherein the oxygen line is able to convey oxygen from the oxygen source to the tubing when the first external lid is closed, and wherein the second end of the oxygen line is exposed even when the first external lid is closed. a first external lid configured to cover the basin when closed; and a second external lid, adjacent the first external lid, and configured to cover other components of the apparatus when closed,
Composition comprising Lactobacillus rhamnosus CGMCC 1.3724 for use in the treatment of obesity, characterized in that the humans are at least 2 years old.
A memory array comprising: a first set of conductive lines (DL1, DL2, DL3, DL4) extending along a vertical direction; a second set of conductive lines (WL1, WL2, WL3) extending along a horizontal direction; a plurality of memory cells, with each of the memory cells being uniquely addressed by combination of one of the conductive lines from the first set and one of the conductive lines from the second set; each of the memory cells comprising: a transistor comprising a gate having a vertically-extending sidewall, comprising a channel region extending along the vertically-extending sidewall and comprising a first source/drain region vertically spaced from a second source/drain region by the channel region; and a capacitor configured as a ring surrounding one of the conductive lines of the first set; and the first and second conductive lines individually directly electrically coupling with individual of the memory cells; and a third set of conductive lines (CL1, CL2, CL3) that extend horizontally above or below the memory cells, the conductive lines of the third set individually directly electrically coupling with individual of the vertically-extending conductive lines of the first set. a first set of conductive lines (DL1, DL2, DL3, DL4) extending along a vertical direction; a second set of conductive lines (WL1, WL2, WL3) extending along a horizontal direction; a plurality of memory cells, with each of the memory cells being uniquely addressed by combination of one of the conductive lines from the first set and one of the conductive lines from the second set; each of the memory cells comprising: a transistor comprising a gate having a vertically-extending sidewall, comprising a channel region extending along the vertically-extending sidewall and comprising a first source/drain region vertically spaced from a second source/drain region by the channel region; and a capacitor configured as a ring surrounding one of the conductive lines of the first set; and the first and second conductive lines individually directly electrically coupling with individual of the memory cells; and a third set of conductive lines (CL1, CL2, CL3) that extend horizontally above or below the memory cells, the conductive lines of the third set individually directly electrically coupling with individual of the vertically-extending conductive lines of the first set.
A process for producing a jet fuel from a kerosene feedstock which comprises: hydrotreating the kerosene feedstock having a boiling range from 149 to 316°C (ASTM 2887) in the presence of a hydrotreating catalyst containing at least one Group 6 metal and at least one Groups 8-10 metal, selected from Ni, W, Mo, Co and mixtures thereof, which may be supported or unsupported, under hydrotreating conditions, said hydrotreating conditions involving temperatures in the range 280°C to 400 °C, pressures in the range of 1480 to 20786 kPa (200 to 3000 psig), a space velocity of from 0.1 to 10 LHSV, and a hydrogen treat gas rate of from 89 to 1780 m 3 /m 3 (500 to 10000 scf/B) to produce a hydrotreated kerosene feedstock; dewaxing the hydrotreated kerosene feedstock in the presence of a catalyst including ZSM-48 and a metal hydrogenation component selected from Pt, Pd or a mixture thereof, under dewaxing conditions, said dewaxing conditions including temperatures of from 250 °C. to 400 °C., pressures of from 791 to 20786 kPa (100 to 3000 psig), liquid hourly space velocities of from 0.1 to 10 hr -1, and hydrogen treat gas rates from 45 to 1780 m 3 /m 3 (250 to 10000 scf/B) to produce a hydrodewaxed kerosene feedstock; and fractionating the hydrodewaxed kerosene feedstock to produce a jet fuel. hydrotreating the kerosene feedstock having a boiling range from 149 to 316°C (ASTM 2887) in the presence of a hydrotreating catalyst containing at least one Group 6 metal and at least one Groups 8-10 metal, selected from Ni, W, Mo, Co and mixtures thereof, which may be supported or unsupported, under hydrotreating conditions, said hydrotreating conditions involving temperatures in the range 280°C to 400 °C, pressures in the range of 1480 to 20786 kPa (200 to 3000 psig), a space velocity of from 0.1 to 10 LHSV, and a hydrogen treat gas rate of from 89 to 1780 m 3 /m 3 (500 to 10000 scf/B) to produce a hydrotreated kerosene feedstock; dewaxing the hydrotreated kerosene feedstock in the presence of a catalyst including ZSM-48 and a metal hydrogenation component selected from Pt, Pd or a mixture thereof, under dewaxing conditions, said dewaxing conditions including temperatures of from 250 °C. to 400 °C., pressures of from 791 to 20786 kPa (100 to 3000 psig), liquid hourly space velocities of from 0.1 to 10 hr -1, and hydrogen treat gas rates from 45 to 1780 m 3 /m 3 (250 to 10000 scf/B) to produce a hydrodewaxed kerosene feedstock; and fractionating the hydrodewaxed kerosene feedstock to produce a jet fuel.
Rotating piston machine, which operates as a pump, compressor or motor, - with a rotor and with a counterrotor, the counterrotor being arranged opposite the rotor, - the rotor having a first end face with a first toothing, the counterrotor having a second end face with a second toothing, and the first and the second toothing being formed in each case from at least one tooth (10, 18) and one tooth space (12, 20), - the toothings (8, 16) being in engagement with one another in such a way that first working spaces are formed as a result of the meshing of the teeth of the first toothing and of the teeth of the second toothing, volumes formed by the first working spaces being varied as a result of the meshing of the teeth (10, 18), - the rotor having a first axis of rotation, the counterrotor having a second axis of rotation, the first axis of rotation and the second axis of rotation forming an angle (φ) which is unequal to 0°, characterized in that - the first end face of the rotor has a third toothing separated spatially from the first toothing and the second end face of the counterrotor has a fourth toothing separated spatially from the second toothing, the third and the fourth toothing being formed in each case from at least one tooth (26, 32) and one tooth space (28, 34), the third and the fourth toothing being in engagement with one another in such a way that second working spaces are formed as a result of the meshing of the teeth of the third toothing and of the teeth of the fourth toothing, volumes formed by the second working spaces being varied as a result of the meshing of the teeth (26, 32). - with a rotor and with a counterrotor, the counterrotor being arranged opposite the rotor, - the rotor having a first end face with a first toothing, the counterrotor having a second end face with a second toothing, and the first and the second toothing being formed in each case from at least one tooth (10, 18) and one tooth space (12, 20), - the toothings (8, 16) being in engagement with one another in such a way that first working spaces are formed as a result of the meshing of the teeth of the first toothing and of the teeth of the second toothing, volumes formed by the first working spaces being varied as a result of the meshing of the teeth (10, 18), - the rotor having a first axis of rotation, the counterrotor having a second axis of rotation, the first axis of rotation and the second axis of rotation forming an angle (φ) which is unequal to 0°, characterized in that - the first end face of the rotor has a third toothing separated spatially from the first toothing and the second end face of the counterrotor has a fourth toothing separated spatially from the second toothing, the third and the fourth toothing being formed in each case from at least one tooth (26, 32) and one tooth space (28, 34), the third and the fourth toothing being in engagement with one another in such a way that second working spaces are formed as a result of the meshing of the teeth of the third toothing and of the teeth of the fourth toothing, volumes formed by the second working spaces being varied as a result of the meshing of the teeth (26, 32).
A hybrid electric vehicle controller configured to determine a value of driver demanded torque to be supplied to a driveline of a vehicle by a first and at least a second actuator (121,123) of the vehicle based on a plurality of parameters, the parameters including: (a) a speed of a first actuator; and (b) a position of a driver-operated accelerator control, characterised in that the controller being configured such that when the first actuator is not connected to the driveline a value of driver demanded torque is determined based on a virtual speed of the first actuator and the position of the driver-operated accelerator control, the virtual speed of the first actuator being a speed at which the first actuator would be turning if the first actuator was connected to the driveline. (a) a speed of a first actuator; and (b) a position of a driver-operated accelerator control,
A refractory sleeve, in particular a collector nozzle on a metallurgical vessel, comprising a gas connection and a gas supply line with an open outlet preferably leading to its lower sleeve face surface, characterised in that at least one further gas connection is respectively provided with a gas supply line, where the outlet is closed and is arranged here such that it can be opened and so a supply of gas in the direction of the lower sleeve face surface is made possible by this gas supply line, whereby the outlet of the closed gas supply line is disposed above the lower sleeve face surface and is provided with a closure made of refractory material.
A method for determining a difference (ΔZ) between a sample position and an in-focus position relative to an optical system based on only one image, said method comprising capturing image data depicting said sample when being in said sample position, comprising: extracting, from said image data, a set of features comprising a plurality of contrast features, wherein said plurality of contrast features are determined for a plurality of color layers, and wherein said set of features comprises a set of directional features indicating whether the system is positively defocused or negatively defocused, the plurality of contrast features being generated using at least two of: a squared gradient function based upon said image data, a wavelet function based upon said image data, an auto-correlation function, such as Vollath's F 4 function or a combination of Vollath's F 4 function and Vollath's F 5 function, based upon said image data, a variance for the whole image data, and a Laplace-based focus measure, and classifying, by using a machine learning algorithm that has been trained to associate sets of features extracted from images with predetermined position difference values, said set of features into a corresponding position difference value, wherein said corresponding position difference value corresponds to said difference (ΔZ) between the sample position and the in-focus position. extracting, from said image data, a set of features comprising a plurality of contrast features, wherein said plurality of contrast features are determined for a plurality of color layers, and wherein said set of features comprises a set of directional features indicating whether the system is positively defocused or negatively defocused, the plurality of contrast features being generated using at least two of: a squared gradient function based upon said image data, a wavelet function based upon said image data, an auto-correlation function, such as Vollath's F 4 function or a combination of Vollath's F 4 function and Vollath's F 5 function, based upon said image data, a variance for the whole image data, and a squared gradient function based upon said image data, a wavelet function based upon said image data, an auto-correlation function, such as Vollath's F 4 function or a combination of Vollath's F 4 function and Vollath's F 5 function, based upon said image data, a variance for the whole image data, and a Laplace-based focus measure, and classifying, by using a machine learning algorithm that has been trained to associate sets of features extracted from images with predetermined position difference values, said set of features into a corresponding position difference value, wherein said corresponding position difference value corresponds to said difference (ΔZ) between the sample position and the in-focus position.