mhurhangee/ep-ind-claims huggingface dataset:
A composition for use in a method to promote the healing of a chronic wound, wherein said composition is in the form of a dry biocompatible film comprising at least one film forming material and particulate egg shell membrane, wherein said particulate ESM is distributed substantially uniformly in and/or on the film and said film, or portion thereof, disintegrates upon contact with a wound or an exudate thereof, and wherein (i) said at least one film forming material is a cellulose and (ii) said particulate ESM is a, or is formed from at least one, particle of ESM having a mean particle diameter of less than 80 μm and is free from eggshell.
Plate for a heat exchanger for heat exchange between a first and a second medium, wherein the plate has a first side and an opposing second side, wherein the first side of said plate is configured with at least one heat transferring elevation and with at least one heat transfer surface surrounding said elevation, wherein dimples (5; 7) are provided at either or both of the heat transferring elevation and the heat transfer surface to permit provision of a through-flow duct for the first medium, wherein the second side of said plate is configured with at least one heat transferring depression corresponding to said elevation, said depression being configured to define a part of a through-flow duct for the second medium, and with at least one bonding surface corresponding to said heat transfer surface and surrounding said depression, wherein the heat transferring elevation on the first side of the plate has a first height corresponding to a depth of the heat transferring depression on the second side of the plate and a width (w) corresponding to a width of the heat transferring depression, and characterised in that the heat transferring depression on the second side of the plate is provided with pressure resisting dimples with a height corresponding to said first height of the heat transferring elevation and to the depth of said corresponding heat transferring depression.
An internal combustion engine, comprising: a lower link rotatably mounted to a crankpin of a crankshaft; an upper link having one end rotatably connected to a piston pin of a piston and the other end rotatably connected to one end side of the lower link through a first connecting pin; and a control link having one end supported on a cylinder block and the other end rotatably connected to the other end side of the lower link through a second connecting pin, wherein, when viewed in a direction of the crankshaft, the second connecting pin is arranged to swing along a direction perpendicular to a center axis of a cylinder, and wherein the internal combustion engine further comprises an oil jet that injects lubricating oil toward a connection part between the lower link and the control link from a lateral direction of the control link corresponding to the direction along which the second connecting pin swings. a lower link rotatably mounted to a crankpin of a crankshaft; an upper link having one end rotatably connected to a piston pin of a piston and the other end rotatably connected to one end side of the lower link through a first connecting pin; and a control link having one end supported on a cylinder block and the other end rotatably connected to the other end side of the lower link through a second connecting pin, wherein, when viewed in a direction of the crankshaft, the second connecting pin is arranged to swing along a direction perpendicular to a center axis of a cylinder, and wherein the internal combustion engine further comprises an oil jet that injects lubricating oil toward a connection part between the lower link and the control link from a lateral direction of the control link corresponding to the direction along which the second connecting pin swings.
An overvoltage protection module having a housing with a threaded supply pin characterised in that a varistor gets heated in case of overvoltage and causes heating of the meltable material in a piston which releases a pre-stressed spring that pushes a plate against a wall of a housing thus creating short circuit between supply pins (1a and 8a); that a bottom of the housing is provided with a varistor above which there is a piston with drilled holes (3a and 3b) on two parallel sides, between which a movable side wall shaped like a plate is arranged; that the movable side wall is provided at its upper edge with drilled holes (4a and 4b) and at its side edge with two holes; that the internal side of the plate is provided with a holder of a spring compressed in a way that the external part of the plate is level with the external edges of the piston; that a meltable material is poured or inserted into said drilled holes (3a and 3b) and the parallel drilled holes (4a and 4b); that a plate onto which a flexible wire is fastened, is fastened with screws (7a and 7b) in the drilled holes (4a and 4b); that the piston is closed by a piston having a cylindrical pin that simultaneously also functions as a second connection pin; that the cylindrical pin of the piston is provided with a rectangular insulation body with one cut-out wall that allows the plate to come in contact with the wall of the housing in case of overvoltage on the varistor; that the body together with the varistor, the piston with the plate, the wire on the plate and the piston are pushed towards the bottom of the housing by a spring that is compressed by a cover with a round hole (11 a) for the pin.
A wireless data communications method comprising: aggregating adjacent radio frequency channels assigned to a single terminal into a plurality of aggregated radio frequency channels, each aggregated radio frequency channel comprising at least two adjacent radio frequency channels; single carrier modulating data symbols of a respective data stream into each of said plurality of said aggregated radio frequency channels, said single carrier being on a centre frequency of the aggregated radio frequency channel; and combining said modulated data symbols into a multi-carrier signal. aggregating adjacent radio frequency channels assigned to a single terminal into a plurality of aggregated radio frequency channels, each aggregated radio frequency channel comprising at least two adjacent radio frequency channels; single carrier modulating data symbols of a respective data stream into each of said plurality of said aggregated radio frequency channels, said single carrier being on a centre frequency of the aggregated radio frequency channel; and combining said modulated data symbols into a multi-carrier signal.
A crystalline free-plate habit of L-arginine salt of -2-(7-(4-cyclopentyl-3-(trifluoromethyl)benzyloxy)-1,2,3,4-tetrahydrocyclopenta[b]indol-3-yl)acetic acid; wherein said crystalline free-plate habit has a BET specific surface area of 0.1 m 2 /g to 5.0 m 2 /g.
A vibration damping system by means of a hydraulic actuation system, comprising: - at least one hydraulic actuator having a movable part, and - a corresponding hydraulic feeding circuit which supplies said hydraulic actuator, and - hydraulic damping means for a vibrating force acting on the movable part of the hydraulic actuator; said damping means being connected to said hydraulic circuit to actuate a damping of said vibrating force, and characterized in that said damping means comprise a double chamber cylinder having a first chamber (34, 134) hydraulically connected to said hydraulic circuit, and a movable part (35, 135) connected to an electric damping part (32, 132), and in that the first chamber (34, 134) is hydraulically connected to and communicating with a second chamber (33, 133) of the double chamber cylinder by means of a calibrated pipe/passage (36, 136). - at least one hydraulic actuator having a movable part, and - a corresponding hydraulic feeding circuit which supplies said hydraulic actuator, and - hydraulic damping means for a vibrating force acting on the movable part of the hydraulic actuator; said damping means being connected to said hydraulic circuit to actuate a damping of said vibrating force, and characterized in that said damping means comprise a double chamber cylinder having a first chamber (34, 134) hydraulically connected to said hydraulic circuit, and a movable part (35, 135) connected to an electric damping part (32, 132), and in that the first chamber (34, 134) is hydraulically connected to and communicating with a second chamber (33, 133) of the double chamber cylinder by means of a calibrated pipe/passage (36, 136).
A method in a wireless device, comprising: monitoring, at a time interval, a neighbour cell from a neighbour cell list; and if a criterion is satisfied relating to a previous reselection or selection activity of the device within a time period, comprising the duration of time camped on a cell, modifying the neighbour cells monitored and/or increasing the time interval at which the neighbour cell is monitored. monitoring, at a time interval, a neighbour cell from a neighbour cell list; and if a criterion is satisfied relating to a previous reselection or selection activity of the device within a time period, comprising the duration of time camped on a cell, modifying the neighbour cells monitored and/or increasing the time interval at which the neighbour cell is monitored.
A laundry treatment apparatus comprising: a washing tub configured to receive laundry, the washing tub being configured to be rotatable; a motor configured to rotate the washing tub; a controller configured to control the motor such that the washing tub is rotated while being accelerated; a current sensing unit configured to sense current of the motor; and a water supply valve configured to supply water into the washing tub, wherein the controller is configured to obtain data corresponding to laundry weight and laundry quality from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to one or more current values sensed by the current sensing unit as input of an input layer of the artificial neural network, the one or more current values being sensed while accelerating the washing tub to a predetermined target speed at which the state in which laundry clings to the washing tub is maintained, wherein the controller is configured to supply water to the washing tub through the water supply valve; rotate the washing tub for a predetermined time to wet the laundry uniformly; and perform said accelerating the washing tub to the predetermined target speed, characterized in that the controller is further configured to perform, when the washing tub is rotated to wet the laundry, resupplying an amount of wash water, which corresponds to a reduced level of wash water absorbed by laundry, into the washing tub while rotating the washing tub. a washing tub configured to receive laundry, the washing tub being configured to be rotatable; a motor configured to rotate the washing tub; a controller configured to control the motor such that the washing tub is rotated while being accelerated; a current sensing unit configured to sense current of the motor; and a water supply valve configured to supply water into the washing tub, wherein the controller is configured to obtain data corresponding to laundry weight and laundry quality from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to one or more current values sensed by the current sensing unit as input of an input layer of the artificial neural network, the one or more current values being sensed while accelerating the washing tub to a predetermined target speed at which the state in which laundry clings to the washing tub is maintained, wherein the controller is configured to supply water to the washing tub through the water supply valve; rotate the washing tub for a predetermined time to wet the laundry uniformly; and perform said accelerating the washing tub to the predetermined target speed, characterized in that the controller is further configured to perform, when the washing tub is rotated to wet the laundry, resupplying an amount of wash water, which corresponds to a reduced level of wash water absorbed by laundry, into the washing tub while rotating the washing tub.
A storage system (10, 30), comprising a plurality of storage bays for receiving storable goods (22, 46), the storage bays being arranged in at least one storage level, 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 (22, 46) in the storage bays or retrieve them from these storage bays; wherein for storing and retrieving the storable goods (22, 46), in addition a conveyor (15, 35) 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 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 (22, 46), and wherein the conveyor (15, 35) is led at least once through the high racks (11, 12, 13, 14; 31, 32, 33, 34) on a storage level; wherein in a storage level 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 (15, 35) is led on the particular storage level 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 on which the conveyor (15, 35) 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 (15, 35).
A method for mitigating the risk of liquefaction of sandy ground to be consolidated having an upper interface surface, including: - producing at least one hole in the sandy ground to be reached or towards volumes of that sandy ground to be processed, - injecting an expanding resin into the at least one hole by means of the injection device, - activating the expanding resin, - conglomerating the sandy ground by means of the expanding resin, connecting portions of the sandy ground to each other, characterized in that the expanding resin has an expansion relationship between a final free volume (Vfin) and an initial free volume (Vin) less than 5. - producing at least one hole in the sandy ground to be reached or towards volumes of that sandy ground to be processed, - injecting an expanding resin into the at least one hole by means of the injection device, - activating the expanding resin, - conglomerating the sandy ground by means of the expanding resin, connecting portions of the sandy ground to each other, characterized in that the expanding resin has an expansion relationship between a final free volume (Vfin) and an initial free volume (Vin) less than 5.
A mobile decontamination system for the detoxification, disinfection and/or radiological decontamination of people, objects and/or regions, comprising an internal combustion engine having an engine housing and an engine shaft, comprising a generator coupled to the engine shaft and designed for generating electric current, comprising a first pump coupled to the engine shaft and designed for discharging a first decontamination medium via a first spray lance (56, 58), comprising a heating boiler designed for heating the first decontamination medium, comprising a second pump designed for discharging a second decontamination medium via a second spray lance, and comprising a control unit designed for controlling at least the heating boiler and the first pump, characterized in that the heating boiler has at least one defined heat output and the control unit is designed for selectively operating the first pump and the heating boiler in one of at least two different operating modes, wherein the first pump in a first operating mode delivers a first volumetric flow from the heating boiler which is at such a high level that the first decontamination medium is in liquid form at the least one defined heat output, and wherein the first pump in a second operating mode delivers a second volumetric flow from the heating boiler which is at such a low level that the first decontamination medium is in gaseous form at the at least one defined heat output.
An inkjet recording medium comprising: a. a coated paper substrate; and b. an inkjet-receptive coating applied to at least one side of said coated paper wherein said inkjet-receptive coating comprises: at least one pigment comprising inorganic oxide particles, wherein the inorganic oxide particles account for 98% of the pigments in the inkjet-receptive coating; a multivalent metal salt present in an amount of 35 to 133 parts based on 100 parts total of the at least one pigment; and, a binder present in an amount of 3 to 50 parts based on 100 parts total at least one pigment, wherein said inkjet recording medium has a 75° gloss of at least 60. a. a coated paper substrate; and b. an inkjet-receptive coating applied to at least one side of said coated paper wherein said inkjet-receptive coating comprises: at least one pigment comprising inorganic oxide particles, wherein the inorganic oxide particles account for 98% of the pigments in the inkjet-receptive coating; a multivalent metal salt present in an amount of 35 to 133 parts based on 100 parts total of the at least one pigment; and, a binder present in an amount of 3 to 50 parts based on 100 parts total at least one pigment, at least one pigment comprising inorganic oxide particles, wherein the inorganic oxide particles account for 98% of the pigments in the inkjet-receptive coating; a multivalent metal salt present in an amount of 35 to 133 parts based on 100 parts total of the at least one pigment; and, a binder present in an amount of 3 to 50 parts based on 100 parts total at least one pigment,
A method for signal transmission over a plurality of antennas of a transmitter, comprising: demultiplexing an input signal S into a plurality of N independent substreams S 1..S N; demultiplexing each of the N substreams S 1..S N into a plurality of K independent substreams, thereby forming a total of N*K substreams S 11... S 1K... S N1... S NK by allocating to each substream S 11...S 1K...S N1...S NK a plurality of K logical channels; generating a set of T*K output signals T 11, T 12,..., T 1K,... T TK, wherein the T output signals T 1i, T 2i,..., T Ti corresponding to the i-th logical channel with i=1...k are generated from the N substreams S 1i, S 2i,..., S Ni by weighting each of the N substreams S 1i, S 2i,..., S Ni by T different weighting coefficients, thereby forming N*T substreams; combining the N*T substreams to form the T output signals T 1i,T 2i,..,T Ti for each logical channel i; converting the output signals T 11..T 1K,..,T T1..T TK to T*K analog signals A 11, A 12..,A 1K,..,A T1,..,A TK; and upconverting each of the T analog signals A 1i, A 2i,.., A Ti, with i=1..K, to a transmit carrier frequency corresponding to the i-th logical channel thereby forming K*T upconverted signals; combining the K upconverted signals to form one RF signal RF j, j=1,..T,amplifying the resulting set of T RF signals RF j and transmitting each amplified signal RF j from an antenna. demultiplexing an input signal S into a plurality of N independent substreams S 1..S N; demultiplexing each of the N substreams S 1..S N into a plurality of K independent substreams, thereby forming a total of N*K substreams S 11... S 1K... S N1... S NK by allocating to each substream S 11...S 1K...S N1...S NK a plurality of K logical channels; generating a set of T*K output signals T 11, T 12,..., T 1K,... T TK, wherein the T output signals T 1i, T 2i,..., T Ti corresponding to the i-th logical channel with i=1...k are generated from the N substreams S 1i, S 2i,..., S Ni by weighting each of the N substreams S 1i, S 2i,..., S Ni by T different weighting coefficients, thereby forming N*T substreams; combining the N*T substreams to form the T output signals T 1i,T 2i,..,T Ti for each logical channel i; converting the output signals T 11..T 1K,..,T T1..T TK to T*K analog signals A 11, A 12..,A 1K,..,A T1,..,A TK; and upconverting each of the T analog signals A 1i, A 2i,.., A Ti, with i=1..K, to a transmit carrier frequency corresponding to the i-th logical channel thereby forming K*T upconverted signals; combining the K upconverted signals to form one RF signal RF j, j=1,..T,amplifying the resulting set of T RF signals RF j and transmitting each amplified signal RF j from an antenna.
Heat shield assembly for use in a hot blast stove installation, wherein the shield assembly comprises a main body and at least one shield part which is movable with respect to the main body, wherein the heat shield assembly is movable from a compact position, wherein the main body and the shield parts substantially overlap, towards a deployed position, wherein the shield part and the main body extend substantially adjacently for forming a heat shielding surface, characterized in that the shield part is movable along a plane from the compact positions towards the deployed position.
Panel, which, at least at two opposite sides, comprises coupling parts, with which two of such panels can be brought in a coupled condition; wherein these coupling parts form a horizontally active locking system and a vertically active locking system; wherein the horizontally active locking system comprises a male part and a female part, which allow that two of such panels can be connected to each other at said sides by providing one of these panels with the pertaining male part, by means of a downward movement, in the female part of the other panel; wherein the vertically active locking system comprises a locking element, which, in the form of an insert, is provided in one of the respective sides; wherein this locking element comprises at least a lock-up body; wherein the lock-up body, at one extremity, forms a stop-forming locking portion, which can cooperate with a locking portion of a similar coupled panel; wherein the locking element consists of a strip which is attached in a recess in the panel; wherein the locking element comprises an attachment portion which retains the strip in the recess; wherein the locking element also comprises a bending zone of a material different from the material of the lock-up body, wherein this bending zone comprises a first boundary surface with said lock-up body as well as a second boundary surface with said attachment portion; and wherein said lock-up body and the attachment portion, in the non-coupled condition, extend in horizontal direction at least for a part vertically underneath each other, characterized in that points of the first boundary surface as well as of the second boundary surface are situated on a vertical line one above the other and in that said first boundary surface, in said non-coupled condition of the panels, globally seen extends in a direction forming an angle of less than 45° with the upper surface of the panels.
An in vitro method to assess or aid in the assessment of kidney function in a subject, the method comprising: analyzing a biological sample from the subject to determine the level of biomarker N-acetylalanine; using the determined level of N-acetylalanine in a mathematical model to calculate an estimated glomerular filtration rate; and using the estimated GFR to assess kidney function. analyzing a biological sample from the subject to determine the level of biomarker N-acetylalanine; using the determined level of N-acetylalanine in a mathematical model to calculate an estimated glomerular filtration rate; and using the estimated GFR to assess kidney function.