mhurhangee/ep-ind-claims huggingface dataset:
A respirator that comprises: a mask body; a female filter cartridge receptacle that is secured directly to the mask body; wherein the female filter cartridge receptacle includes a top surface, a front side, and first and second opposing sides (36, 38); and a filter cartridge comprising first and second major surfaces (26, 28) and a male end, wherein the male end is a side portion of the filter cartridge, wherein an inner compartment, formed by the interior of the sides and surfaces of female filter cartridge receptacle, has a cross-sectional area that is slightly larger than the male end of the filter cartridge, wherein the male end is capable of being plugged directly into the female filter cartridge receptacle by inserting the male end of the filter cartridge into the female receptacle; wherein one or both of the major surfaces (26, 28) is fluid permeable to allow ambient air to enter the filter cartridge to be filtered; and wherein the spacing between the second major surface of the filter cartridge and the mask body is less than 1 centimeter at the closest distance between the second major surface and the mask body. a mask body; a female filter cartridge receptacle that is secured directly to the mask body; wherein the female filter cartridge receptacle includes a top surface, a front side, and first and second opposing sides (36, 38); and a filter cartridge comprising first and second major surfaces (26, 28) and a male end, wherein the male end is a side portion of the filter cartridge, wherein an inner compartment, formed by the interior of the sides and surfaces of female filter cartridge receptacle, has a cross-sectional area that is slightly larger than the male end of the filter cartridge, wherein the male end is capable of being plugged directly into the female filter cartridge receptacle by inserting the male end of the filter cartridge into the female receptacle; wherein one or both of the major surfaces (26, 28) is fluid permeable to allow ambient air to enter the filter cartridge to be filtered; and wherein the spacing between the second major surface of the filter cartridge and the mask body is less than 1 centimeter at the closest distance between the second major surface and the mask body.
A method for predicting whether a cancer patient with a solid tumor is responsive to treatment with chemotherapy comprising the steps: • providing a tumor sample previously taken from said patient, wherein the tumor sample is a tumor section and comprises the invasive margin.; and • determining in the tumor section the number of CD3-positive cells per squaremillimeter and either the number of CD8-positive cells per squaremillimeter or the number of Granzyme B-positive or both, wherein the number of cells is determined with immunohistochemistry and/or immunofluorescence using whole slide imaging technology on the whole tissue section; wherein microscopically digitized slides resulting from whole slide imaging are subject to automatic image processing; wherein the biological markers are assessed automatically and; wherein the sample of the patient is classified by algorithms towards their response to the treatment with chemotherapy wherein a number of CD3-positive cells per mm 2 and CD8-positive cells/mm 2 and/or Granzyme B-positive cells/mm 2 above a threshold predefined for each of CD3, CD8 and Granzyme B is indicative that said patient is responsive to said chemotherapy. • providing a tumor sample previously taken from said patient, wherein the tumor sample is a tumor section and comprises the invasive margin.; and • determining in the tumor section the number of CD3-positive cells per squaremillimeter and either the number of CD8-positive cells per squaremillimeter or the number of Granzyme B-positive or both, wherein the number of cells is determined with immunohistochemistry and/or immunofluorescence using whole slide imaging technology on the whole tissue section; wherein microscopically digitized slides resulting from whole slide imaging are subject to automatic image processing; wherein the biological markers are assessed automatically and; wherein the sample of the patient is classified by algorithms towards their response to the treatment with chemotherapy wherein a number of CD3-positive cells per mm 2 and CD8-positive cells/mm 2 and/or Granzyme B-positive cells/mm 2 above a threshold predefined for each of CD3, CD8 and Granzyme B is indicative that said patient is responsive to said chemotherapy.
A test device for detecting an analyte in a liquid sample, which device comprises a porous matrix that comprises a test zone on said porous matrix, said test zone comprising a test reagent that binds to an analyte or another binding reagent that binds to said analyte, or is an analyte or an analyte analog that competes with an analyte in said sample for binding to a binding reagent for said analyte, wherein a liquid sample flows laterally along said test device and passes said test zone to form a detectable signal to indicate presence, absence and/or amount of said analyte in said liquid sample, the formation of said detectable signal requires the use of a detectable label and a DNA dendrimer, said DNA dendrimer comprises a first component that links said DNA dendrimer to a binding reagent linkable to said DNA dendrimer, an analyte linkable to said DNA dendrimer, or an analyte analog linkable to said DNA dendrimer, and a second component that links said DNA dendrimer to said detectable label linkable to said DNA dendrimer, and wherein said test device comprises a DNA dendrimer and wherein said DNA dendrimer, before said test device is used, is dried on a location on said test device upstream from said test zone, and at least 50%, 55%, 60%, 65%, 70%, 75%, 80%, 85%, 90%, 95%, 96%, 97%, 98%, 99% or 100 % of the dried DNA dendrimer is capable of being moved to the test zone by a liquid.
A method for quantifying the adhesion capacity of fluorescent microspheres to the surface of vegetable seeds by means of an adhesive composition, characterized in that it comprises the following steps: a. -) takingan adhesive composition comprising an aqueous solution of corn steep liquor and/or soya protein hydrolysates, b -) mixing the adhesive composition of step a) with silica or polyethylene fluorescent microspheres with a particle size of between 1 - 120 microns and continuing to stir, c -) placing the vegetable seeds into contact with the mixture of step b), d -) drying the seeds at room temperature, e -) obtaining images of the fluorescent microspheres adhered to the seeds by fluorescence microscopy, exposing them to ultraviolet light corresponding to a wavelength of 365 nm, and f -) counting the fluorescent microspheres adhered to the seeds based on the images obtained in step e). a. -) takingan adhesive composition comprising an aqueous solution of corn steep liquor and/or soya protein hydrolysates, b -) mixing the adhesive composition of step a) with silica or polyethylene fluorescent microspheres with a particle size of between 1 - 120 microns and continuing to stir, c -) placing the vegetable seeds into contact with the mixture of step b), d -) drying the seeds at room temperature, e -) obtaining images of the fluorescent microspheres adhered to the seeds by fluorescence microscopy, exposing them to ultraviolet light corresponding to a wavelength of 365 nm, and f -) counting the fluorescent microspheres adhered to the seeds based on the images obtained in step e).
A method for additively manufacturing a composite part, the method comprising: applying a thermosetting resin to a non-resin component to create a continuous flexible line by pulling the non-resin component through a first resin-part applicator, in which a first quantity of a first part of the thermosetting resin is applied to the non-resin component, and by pulling the non-resin component through a second resin-part applicator, in which a second quantity of second part of the thermosetting resin is applied to at least a portion of the first quantity of the first part of the thermosetting resin, applied to the non-resin component; routing the continuous flexible line into a delivery guide; and depositing, via the delivery guide, a segment of the continuous flexible line along a print path. applying a thermosetting resin to a non-resin component to create a continuous flexible line by pulling the non-resin component through a first resin-part applicator, in which a first quantity of a first part of the thermosetting resin is applied to the non-resin component, and by pulling the non-resin component through a second resin-part applicator, in which a second quantity of second part of the thermosetting resin is applied to at least a portion of the first quantity of the first part of the thermosetting resin, applied to the non-resin component; routing the continuous flexible line into a delivery guide; and depositing, via the delivery guide, a segment of the continuous flexible line along a print path.
A compensating bearing for mounting structures, in particular bridges, with - a structure console that can be arranged on the structure side, - a substructure console that can be arranged on a substructure, and - a bearing body connecting the structure console and the substructure console with each other in a jointed manner, wherein - the bearing body is arranged displaceably on the substructure console along a body axis of the bearing body and - the structure console is arranged about the body axis of the bearing body rotatably with the bearing body as well as tippable with respect to the body axis of the bearing body, characterized in that - the substructure console has a first lower bearing body holder and a second lower bearing body holder that are arranged at a distance from each other and each have a lower receiving opening that are designed for arranging the bearing body displaceably in the direction of the body axis, and that - the structure console has an upper bearing body holder with an upper receiving opening arranged in the region between the lower bearing body holders (4a, 4b) that is designed for arranging the bearing body rotatably about the body axis as well as tippably about the body axis. - a structure console that can be arranged on the structure side, - a substructure console that can be arranged on a substructure, and - a bearing body connecting the structure console and the substructure console with each other in a jointed manner, wherein - the bearing body is arranged displaceably on the substructure console along a body axis of the bearing body and - the structure console is arranged about the body axis of the bearing body rotatably with the bearing body as well as tippable with respect to the body axis of the bearing body, - the substructure console has a first lower bearing body holder and a second lower bearing body holder that are arranged at a distance from each other and each have a lower receiving opening that are designed for arranging the bearing body displaceably in the direction of the body axis, and that - the structure console has an upper bearing body holder with an upper receiving opening arranged in the region between the lower bearing body holders (4a, 4b) that is designed for arranging the bearing body rotatably about the body axis as well as tippably about the body axis.
An apparatus for regulating a temperature of a fluid inside a container, and aerating and dispensing the fluid from the container, the apparatus comprising: a body adapted to contact the fluid inside the container, wherein the body has an axis and a cavity, and a second fluid located and sealed inside the cavity; an aerator mounted to the body and having a fluid inlet, a fluid outlet, an air inlet and an air outlet, the aerator having a fluid channel extending between the fluid inlet and the fluid outlet and configured to extend out of the container, the air inlet is configured to flow air to the air outlet and into the container, and a passage is configured to flow at least a portion of the air from the air inlet into the fluid channel to aerate the fluid; an external seal on the body configured to engage and seal an opening in the container, and a cap configured to mount to the aerator in a closed position to close the fluid outlet and air inlet, wherein the cap is detachable from the aerator in an open position and configured to permit fluid to dispense from the aerator. a body adapted to contact the fluid inside the container, wherein the body has an axis and a cavity, and a second fluid located and sealed inside the cavity; an aerator mounted to the body and having a fluid inlet, a fluid outlet, an air inlet and an air outlet, the aerator having a fluid channel extending between the fluid inlet and the fluid outlet and configured to extend out of the container, the air inlet is configured to flow air to the air outlet and into the container, and a passage is configured to flow at least a portion of the air from the air inlet into the fluid channel to aerate the fluid; an external seal on the body configured to engage and seal an opening in the container, and a cap configured to mount to the aerator in a closed position to close the fluid outlet and air inlet, wherein the cap is detachable from the aerator in an open position and configured to permit fluid to dispense from the aerator.
An aircraft comprising a pressurised area, an unpressurised area and an environmental conditioning system, the environmental conditioning system comprising: a housing in the unpressurized area of the aircraft; and an air cycle machine disposed in the housing for conditioning an airflow comprising hot compressed air by reducing its temperature and pressure to produce conditioned pressurized air for delivery to the pressurized area of the aircraft, the air cycle machine comprising at least one of a heat exchanger fan, a turbine (140,144), or a compressor; characterised' in that an accelerometer (152,154,156,158) is disposed within the housing and is positioned and configured to sense vibration from and rotational speed of one or more of the heat exchanger fan, the compressor, or the turbine (140,144); and by further comprising a controller in communication with the accelerometer (152,154,156,158), and configured to respond to vibration detected by the accelerometer (152,154,156,158). a housing in the unpressurized area of the aircraft; and an air cycle machine disposed in the housing for conditioning an airflow comprising hot compressed air by reducing its temperature and pressure to produce conditioned pressurized air for delivery to the pressurized area of the aircraft, the air cycle machine comprising at least one of a heat exchanger fan, a turbine (140,144), or a compressor; characterised' in that an accelerometer (152,154,156,158) is disposed within the housing and is positioned and configured to sense vibration from and rotational speed of one or more of the heat exchanger fan, the compressor, or the turbine (140,144); and by further comprising a controller in communication with the accelerometer (152,154,156,158), and configured to respond to vibration detected by the accelerometer (152,154,156,158).
Process for preparing jet fuel or jet fuel precursors which includes the treatment of a charge derived from biomass, said charge comprising at least one compound chosen from - terpenes of formula [CH 2 =C(CH 3)CH=CH 2]n, in which n is an integer of from 2 to 12, the carbon-based chain of which is linear, cyclic or branched, or - terpenoids which are cyclic or branched terpenes as defined previously, which have been chemically modified by oxidation and/or rearrangement of the carbon backbone with an alkyl group added or removed, said process comprising a cycloaddition step (i) followed by a hydrogenation and selective cracking step (ii). - terpenes of formula [CH 2 =C(CH 3)CH=CH 2]n, in which n is an integer of from 2 to 12, the carbon-based chain of which is linear, cyclic or branched, or - terpenoids which are cyclic or branched terpenes as defined previously, which have been chemically modified by oxidation and/or rearrangement of the carbon backbone with an alkyl group added or removed,
A double-fed electrodynamic asynchronous machine, having a monitoring device (M') a stator and a rotor body held rotatably therein, whose shaft is mounted on at least one bearing, and at least one insulation layer (30, 31) for electrical insulation of the rotor body with respect to a zero potential, at least one contact element for tapping an electric voltage, which is applied with respect to the zero potential by means of said at last one insulation layer (30, 31), a measuring and signalling unit, which is connected to the contact elements for measuring the applied voltage and is designed for emitting a warning signal depending on the height of said voltage, wherein said at least one bearing comprises an annular first insulation layer, characterised in that a second annular insulation layer is arranged between said at least one bearing and the shaft, wherein the voltage is tapped with respect to the zero potential via the first insulation layer.
Method for detecting the orientation of the rotor polarity of a BLDC motor, especially with an ironless winding or slotless winding, i.e. eliminating a 180° ambiguity, comprising the following steps: determining the position of the rotor, i.e. the rotor angle, with a 180° ambiguity, injecting at least one voltage pulse with an orientation in the α-β plane that matches the position of the rotor determined in the previous step, taking current samples with especially high frequency resulting from the at least one voltage pulse during a period where zero voltage is applied in order to gain a representation of the resulting current waveform, and processing the current samples to determine variations in the current waveform indicative for the orientation of the rotor polarity, characterized in that in the step of processing the current samples the dynamic evolution of the current samples projected onto the injected voltage vector is used, and in that the following model of evolution is used in the processing step: i k + 1 = i k + a 1 ⋅ i k + a 2 ⋅ f i k + b, wherein i k is an amount of the current vector, f ( i k) is an even function of i k, i k +1 is an amount of a subsequent current vector and a 1, a 2 and b are parameters and wherein the parameters a 1, a 2 and b are determined by use of a least squares algorithm or a method for identifying unknown parameters or a method for solving systems for respective equations. determining the position of the rotor, i.e. the rotor angle, with a 180° ambiguity, injecting at least one voltage pulse with an orientation in the α-β plane that matches the position of the rotor determined in the previous step, taking current samples with especially high frequency resulting from the at least one voltage pulse during a period where zero voltage is applied in order to gain a representation of the resulting current waveform, and processing the current samples to determine variations in the current waveform indicative for the orientation of the rotor polarity, characterized in that in the step of processing the current samples the dynamic evolution of the current samples projected onto the injected voltage vector is used, and in that the following model of evolution is used in the processing step: i k + 1 = i k + a 1 ⋅ i k + a 2 ⋅ f i k + b, wherein i k is an amount of the current vector, f ( i k) is an even function of i k, i k +1 is an amount of a subsequent current vector and a 1, a 2 and b are parameters i k is an amount of the current vector, f ( i k) is an even function of i k, i k +1 is an amount of a subsequent current vector and a 1, a 2 and b are parameters and wherein the parameters a 1, a 2 and b are determined by use of a least squares algorithm or a method for identifying unknown parameters or a method for solving systems for respective equations.
Device for patterning a workpiece which preferably consists at least in part of wood, wood-based materials, plastics material or the like, comprising: at least one printing unit for printing on a surface, in particular a narrow surface, of the workpiece, a conveying means for bringing about a relative movement between the workpiece and the printing unit, and a supply unit for supplying at least two printing components to the printing unit, wherein a mixing unit is provided upstream of the printing unit for mixing the components supplied by means of the supply unit and for discharging the mixture to the printing unit, characterised in that the mixing unit is configured to control the temperature of the supplied components. at least one printing unit for printing on a surface, in particular a narrow surface, of the workpiece, a conveying means for bringing about a relative movement between the workpiece and the printing unit, and a supply unit for supplying at least two printing components to the printing unit, wherein a mixing unit is provided upstream of the printing unit for mixing the components supplied by means of the supply unit and for discharging the mixture to the printing unit, characterised in that the mixing unit is configured to control the temperature of the supplied components.
Supporting device for supporting a mobile device, in particular a vehicle, on the ground, comprising a support (40, 42) and a sensor means (C, D, E, F, G) which generates a signal that is dependent on the supporting force, comprising at least one bolt (44, 44a, 44b, 44c, 44d, 44e, 44f) which transfers at least a portion of the supporting force, as a result of which the bolt (44, 44a, 44b, 44c, 44d, 44e, 44f) is reversibly deformed, wherein the sensor means (C, D, E, F, G) responds to the deformation of the bolt (44, 44a, 44b, 44c, 44d, 44e, 44f), wherein the support (40, 42) comprises a support foot which can be raised and lowered by means of a hydraulic cylinder, characterised in that the support foot is mounted on the support (40, 42) by means of a universal joint, wherein the bolt is a pivot bolt of the universal joint.
Method for determining at least one ocular measurement of a user from at least one image of the user's head, acquired by a consumer-level digital image sensor, the ocular measurement being included among the pupillary distance, the monocular pupillary distance or the heights, the user viewing the image of their head displayed on a screen, said method comprising the following steps: a. guiding the three-dimensional orientation of the user's head relative to the image sensor by superimposing visual markers on the image comprising the user's head displayed on the screen, the markers comprising a symmetrical guide centred in the image for displacement and depth positioning relative to the camera, a guide for horizontal positioning of the eyes and a guide for horizontal symmetry of face; b. calculating the ocular measurement from the measurement, in pixels, of a known dimension of an object included in the image, the object having a known dimension, and from the dimension in pixels of the ocular measurement in the image; the step of guiding the orientation comprising a substep of monitoring, in real time, the position and the three-dimensional orientation of the user's face, the visual markers being determined as a function of the position and the orientation of the user's face at each instant. a. guiding the three-dimensional orientation of the user's head relative to the image sensor by superimposing visual markers on the image comprising the user's head displayed on the screen, the markers comprising a symmetrical guide centred in the image for displacement and depth positioning relative to the camera, a guide for horizontal positioning of the eyes and a guide for horizontal symmetry of face; b. calculating the ocular measurement from the measurement, in pixels, of a known dimension of an object included in the image, the object having a known dimension, and from the dimension in pixels of the ocular measurement in the image; the step of guiding the orientation comprising a substep of monitoring, in real time, the position and the three-dimensional orientation of the user's face, the visual markers being determined as a function of the position and the orientation of the user's face at each instant.