mhurhangee/ep-ind-claims huggingface dataset:
A topper for a bed, the topper extending in longitudinal and lateral directions and including a fluid flowpath for channeling fluid through the topper from an inlet to an outlet, the flowpath configured to distribute the fluid to a preferred target region of the topper as a result of exhibiting a nonuniform resistance to fluid flow in at least one of the longitudinal and lateral directions.
An axle unit comprising a first suspension arm element and a second suspension arm element, wherein the first suspension arm element and the second suspension arm element can be mounted on a vehicle frame so as to be pivotable about a common pivot axis, wherein the first suspension arm element has a first joining region configured as a recess, and the second suspension arm element has a second joining region configured as a recess, wherein the first joining region and the second joining region are arranged relative to each other such that they can be arranged on two opposing sides of an axle tube extending substantially along a tube axis, and wherein the axle tube can be secured by substance bonding in the first and second joining regions (43, 45) to the first and second suspension arm elements (42, 44), wherein the first joining region and the second joining region are arranged offset to each other relative to the tube axis, characterized in that the first joining region has a first axial extension (L 43) parallel to the tube axis, wherein the second joining region has a second axial extension (L 45) parallel to the tube axis, wherein a first joint center (M 43) is defined centrally to the first axial extension (L 43) and perpendicular to the tube axis, and wherein a second joint center (M 45) is defined centrally to the second axial extension (L 45) and perpendicular to the tube axis, wherein the first joint center (M 43) is spaced from the second joint center (M 45) by an offset.
A communication method, performed by a terminal, comprising: sending (S11, S21) a capability parameter set to a network device, wherein the capability parameter set represents information on a capability supported by the terminal; and characterized by receiving (S12, S23) first parameter configuration information from a network device, wherein the first parameter configuration information comprises second parameter configuration information corresponding to a capability parameter subset, and the capability parameter subset comprises a capability parameter matching an actual application scenario in the capability parameter set; wherein the actual application scenario comprises a low speed rate and high delay scenario; wherein the capability parameter set comprises a bandwidth capability and an antenna capability supported by the terminal; wherein the capability parameter set further comprises at least one of the following: a capability related to a maximum transmitting power level, a duplex mode supporting capability, a capability related to a maximum number of physical downlink control channel, PDCCH, blind detections, a capability related to a minimum processing delay, a carrier aggregation supporting capability, a dual connection supporting capability, a discontinuous reception capability, a mini-slot scheduling capability, a coverage enhancement supporting capability, a measurement conditional relaxation supporting capability, a full mobility supporting capability and a speech supporting capability. sending (S11, S21) a capability parameter set to a network device, wherein the capability parameter set represents information on a capability supported by the terminal; and characterized by receiving (S12, S23) first parameter configuration information from a network device, wherein the first parameter configuration information comprises second parameter configuration information corresponding to a capability parameter subset, and the capability parameter subset comprises a capability parameter matching an actual application scenario in the capability parameter set; wherein the actual application scenario comprises a low speed rate and high delay scenario; wherein the capability parameter set comprises a bandwidth capability and an antenna capability supported by the terminal; wherein the capability parameter set further comprises at least one of the following: a capability related to a maximum transmitting power level, a duplex mode supporting capability, a capability related to a maximum number of physical downlink control channel, PDCCH, blind detections, a capability related to a minimum processing delay, a carrier aggregation supporting capability, a dual connection supporting capability, a discontinuous reception capability, a mini-slot scheduling capability, a coverage enhancement supporting capability, a measurement conditional relaxation supporting capability, a full mobility supporting capability and a speech supporting capability.
An isolated nucleic acid molecule which comprises a nucleotide sequence encoding a polypeptide having: (a) the sequence of amino acid residues from 1 to 394 of Figure 2 (SEQ ID NO: 2); or (b) amino acid residues 1 to X of Figure 2 (SEQ ID NO: 2), where X is any amino acid from 347-377 of Figure 2. (a) the sequence of amino acid residues from 1 to 394 of Figure 2 (SEQ ID NO: 2); or (b) amino acid residues 1 to X of Figure 2 (SEQ ID NO: 2), where X is any amino acid from 347-377 of Figure 2.
A resin panel including a first structure and a second structure stacked on each other, wherein the structures (15A, 15B) include reference surfaces (15Sa, 15Sb) that serve as the front surface and the back surface of the resin panel respectively; each of the structures (15A, 15B) includes a plurality of protrusions (150a, 150b) protruding inwardly from the reference surface, the protrusions of one of the structures facing those of the other structure; and the structures (15A, 15B) are joined such that apical portions of the protrusions of one of the structures abut apical portions of the protrusions of the other structure; wherein jutting portions (Rb1, Rb2, Rb3, Rb4) of linear shape are formed between adjacent protrusions of each of the structures (15A, 15B), the first structure and the second structure are formed in individual blow molding process, by continuously feeding a cylindrical parison in a molten state between the two split molds (50A, 50B) at the open position, and by forcing the molten resin against the respective split molds on which protrusions corresponding to the protrusions (150a, 150b) are formed, whereas shapes corresponding to the jutting portions (Rb1, Rb2, Rb3, Rb4) are not formed thereon, and the cylindrical parison in a molten state is extruded vertically downward, characterised in that a plurality of the jutting portions (Rb1, Rb2, Rb3, Rb4) of linear shape are formed for each of the protrusions, at least two of the jutting portions not extending in two opposite directions when a distance t1 is greater than another distance t2, or, the jutting portions (Rb1, Rb2, Rb3, Rb4) of linear shape formed for each of the protrusions extend in two opposite directions when the distance t1 is smaller than the distance t2, wherein the distance t1 is the distance between the centres of adjacent protrusions in the extrusion direction of the cylindrical parison, and the distance t2 is the distance between the centres of adjacent protrusions in a direction orthogonal to the extrusion direction.
Method for detecting at least one microorganism present in a sample, said method essentially comprising the following steps: a) in a first container, bringing said sample into contact with at least one culture medium, b) placing said first container in suitable conditions to permit growth of the microorganism or microorganisms, for 6 to 48h; c) bringing some or all of the mixture consisting of the sample and the culture medium into contact with a reaction mixture and a single-piece substrate for capturing said microorganism(s) in a second container, said reaction mixture comprising nutrients, a selective system allowing the population of target bacteria to increase, a detection mean for detecting the microorganism or microorganisms chosen among dyes and fluorescent compounds; d) placing said second container in suitable conditions to permit growth of the microorganism or microorganisms, e) detecting, within said second container, the presence of the microorganism or microorganisms detected by the detecting means and fixed on the capture substrate, the detection being carried out in real time. a) in a first container, bringing said sample into contact with at least one culture medium, b) placing said first container in suitable conditions to permit growth of the microorganism or microorganisms, for 6 to 48h; c) bringing some or all of the mixture consisting of the sample and the culture medium into contact with a reaction mixture and a single-piece substrate for capturing said microorganism(s) in a second container, said reaction mixture comprising nutrients, a selective system allowing the population of target bacteria to increase, a detection mean for detecting the microorganism or microorganisms chosen among dyes and fluorescent compounds; d) placing said second container in suitable conditions to permit growth of the microorganism or microorganisms, e) detecting, within said second container, the presence of the microorganism or microorganisms detected by the detecting means and fixed on the capture substrate, the detection being carried out in real time.
Method for prediction of response to cardiovascular regeneration, wherein the method comprises (i) determining in a sample of a subject the amount of each of the following biomarkers, wherein the biomarkers are Growth factor wherein the growth factor is selected from VEGF and/or Erythropoietin and optionally from FGF; Lymphocyte adapter protein; Glycoprotein, wherein the Glycoprotein is selected from Vitronectin and optionally from GCSF; brain natriuretic peptide; circulating endothelial progenitor cells; circulating endothelial cells; circulating thrombocytes; circulating mononuclear cells and subpopulations; and receptor/ligand expression on MNC subpopulations, (ii) comparing the determined amounts to a baseline value and/or a reference, (iii) predicting, based on the results of the comparison whether a response to cardiac repair in the subject is to be expected, not expected or is ambivalent. (i) determining in a sample of a subject the amount of each of the following biomarkers, wherein the biomarkers are Growth factor wherein the growth factor is selected from VEGF and/or Erythropoietin and optionally from FGF; Lymphocyte adapter protein; Glycoprotein, wherein the Glycoprotein is selected from Vitronectin and optionally from GCSF; brain natriuretic peptide; circulating endothelial progenitor cells; circulating endothelial cells; circulating thrombocytes; circulating mononuclear cells and subpopulations; and receptor/ligand expression on MNC subpopulations, (ii) comparing the determined amounts to a baseline value and/or a reference, (iii) predicting, based on the results of the comparison whether a response to cardiac repair in the subject is to be expected, not expected or is ambivalent.
A probe system for subsurface chemical sampling comprising: a probe; a fluid source; a detector; a transfer line comprising a first flexible tube for carrying fluid to the probe; and a second flexible tube for carrying sample-loaded fluid from the probe; wherein the first flexible tube connects the fluid source to the probe and the second flexible tube connects the probe to the detector; and an electrical supply for applying a voltage to the second flexible tube or to both the first and second flexible tubes (11, 12) for heating the tube, characterized in that the second flexible or both first and second flexible tubes (11, 12) comprise a barrier tube, a metal coating, an insulating layer, the metal coating, of the second flexible tube or both the first and second flexible tubes (11, 12), surrounding the barrier tube; the insulating layer surrounding the metal coating; the electrical supply being arranged for applying a voltage to the metal coating for heating it resistively; the barrier tube being arranged for transferring the heat of the metal coating to the fluid carried by the tube. a probe; a fluid source; a detector; a transfer line comprising a first flexible tube for carrying fluid to the probe; and a second flexible tube for carrying sample-loaded fluid from the probe; wherein the first flexible tube connects the fluid source to the probe and the second flexible tube connects the probe to the detector; and an electrical supply for applying a voltage to the second flexible tube or to both the first and second flexible tubes (11, 12) for heating the tube, characterized in that the second flexible or both first and second flexible tubes (11, 12) comprise a barrier tube, a metal coating, an insulating layer, the metal coating, of the second flexible tube or both the first and second flexible tubes (11, 12), surrounding the barrier tube; the insulating layer surrounding the metal coating; the electrical supply being arranged for applying a voltage to the metal coating for heating it resistively; the barrier tube being arranged for transferring the heat of the metal coating to the fluid carried by the tube.
Method for the production of wound tubes made of plastic, notably split tubes for wet rotor pumps, by means of winding a flat, fibre-reinforced tape material having a thermoplastic or thermosetting polymer matrix onto a heated winding core while the polymer matrix is melted by means of laser irradiation to create a material bond between two layers of the tape material lying on top of each other, characterised in that the winding core having an outer tube onto which the tape material is wound, an inner tube arranged within the outer tube, and for variothermic tempering of the outer tube a fluid flows through the winding core axially following at least one helical flow path around the winding core axis, flow path extending radially between the outer tube and the inner tube along at least one axial portion of the winding core.
A component management system for managing component mounting on a board in a component mounting line in which multiple work devices, including at least one component mounting device, are arranged in a line, the component management system comprising: a specifying section configured to specify a location of each board at the component mounting line; an arrival predicting section configured to predict an arrival time point of each board at a target device based on the location specified by the specifying section, the target device being defined as one of the component mounting devices; a component-exhaustion predicting section configured to calculate the number of boards to be mountable based on the number of remaining components and the number of components to be mounted per board in the target device, and configured to predict a component exhaustion time point, at which the component is exhausted in the target device, based on the number of boards and the arrival time point, and a notification section configured to report the component exhaustion time point or a component supply time point based on the component exhaustion time point characterized in that: the notification section reports that the component exhaustion time point may be delayed when mounting of the upstream device is interrupted, wherein the notification section is configured to report an elapsed time period from the interruption when mounting of the upstream device is interrupted. a specifying section configured to specify a location of each board at the component mounting line; an arrival predicting section configured to predict an arrival time point of each board at a target device based on the location specified by the specifying section, the target device being defined as one of the component mounting devices; a component-exhaustion predicting section configured to calculate the number of boards to be mountable based on the number of remaining components and the number of components to be mounted per board in the target device, and configured to predict a component exhaustion time point, at which the component is exhausted in the target device, based on the number of boards and the arrival time point, and a notification section configured to report the component exhaustion time point or a component supply time point based on the component exhaustion time point characterized in that: the notification section reports that the component exhaustion time point may be delayed when mounting of the upstream device is interrupted, wherein the notification section is configured to report an elapsed time period from the interruption when mounting of the upstream device is interrupted.
A pressure safety device for use with a bag valve mask, BVM, including a bag assembly having a bag connector for detachably mating to a mask connector on a patient mask, said pressure safety device comprising: a housing having a bag port, a mask fitting, and a flow path from the bag port to the mask fitting, wherein the bag port is configured to detachably connect to the bag connector on the BVM and the mask fitting is configured to detachably connect to the mask connector on the BVM; and an automatic flow reduction valve located on the flow path in the housing and configured to impede flow when a pressure or flow rate on a bag connector side of the automatic flow reduction valve exceeds a maximum threshold value; wherein the automatic flow reduction valve comprises a deformable seal having an open position and a closed position; wherein the deformable seal is configured to deform to fully block the flow path in response to the pressure or flow rate exceeding the maximum threshold value; and characterized in that the deformable seal comprises a conical periphery configured to evert from an open, unstressed configuration to a closed, stressed configuration in response to the pressure or flow rate exceeding the maximum threshold value. a housing having a bag port, a mask fitting, and a flow path from the bag port to the mask fitting, wherein the bag port is configured to detachably connect to the bag connector on the BVM and the mask fitting is configured to detachably connect to the mask connector on the BVM; and an automatic flow reduction valve located on the flow path in the housing and configured to impede flow when a pressure or flow rate on a bag connector side of the automatic flow reduction valve exceeds a maximum threshold value; wherein the automatic flow reduction valve comprises a deformable seal having an open position and a closed position; wherein the deformable seal is configured to deform to fully block the flow path in response to the pressure or flow rate exceeding the maximum threshold value; and characterized in that the deformable seal comprises a conical periphery configured to evert from an open, unstressed configuration to a closed, stressed configuration in response to the pressure or flow rate exceeding the maximum threshold value.
A cosmetic method in which: a) a color is acquired from a region of the body of an individual, by using a device equipped with a color camera and by placing a color reference chart in the field of said camera during the acquisition and acquiring an image of the chart, wherein the color reference chart and a region of skin adjoining this chart are recognized by the device and acquisition units of the device are colorimetrically calibrated via knowledge of absolute color coordinates of the chart; and b) delivering, using the device, and the color acquired by the device in a) and knowledge of the tanning pathways of various skin phototypes, at least one indication concerning data representative of skin phototype and at least one indication selected from indications concerning - at least one skin color obtainable by the individual via the pigmentation or depigmentation process, - photoprotection to be applied, and - application or administration of a product intended to temporarily modify the color of the skin, the product being a pro-pigmenting, depigmenting or anti-pigmenting product. a) a color is acquired from a region of the body of an individual, by using a device equipped with a color camera and by placing a color reference chart in the field of said camera during the acquisition and acquiring an image of the chart, wherein the color reference chart and a region of skin adjoining this chart are recognized by the device and acquisition units of the device are colorimetrically calibrated via knowledge of absolute color coordinates of the chart; and b) delivering, using the device, and the color acquired by the device in a) and knowledge of the tanning pathways of various skin phototypes, at least one indication concerning data representative of skin phototype and at least one indication selected from indications concerning - at least one skin color obtainable by the individual via the pigmentation or depigmentation process, - photoprotection to be applied, and - application or administration of a product intended to temporarily modify the color of the skin, the product being a pro-pigmenting, depigmenting or anti-pigmenting product. - at least one skin color obtainable by the individual via the pigmentation or depigmentation process, - photoprotection to be applied, and - application or administration of a product intended to temporarily modify the color of the skin, the product being a pro-pigmenting, depigmenting or anti-pigmenting product.
A guide wire comprising: a core shaft including a distal end portion having a pseudoelastic property; a tip joined to a distal end of the distal end portion of the core shaft; and an auxiliary wire that is arranged parallel to the distal end portion of the core shaft, has a distal end joined to the tip, and has a rear end joined to the core shaft, wherein the auxiliary wire is more flexible than the distal end portion of the core shaft, a breaking strength of the auxiliary wire is higher than a breaking strength of the distal end portion of the core shaft, and characterized in that a breaking elongation of the auxiliary wire is shorter than a breaking elongation of the distal end portion of the core shaft. a core shaft including a distal end portion having a pseudoelastic property; a tip joined to a distal end of the distal end portion of the core shaft; and an auxiliary wire that is arranged parallel to the distal end portion of the core shaft, has a distal end joined to the tip, and has a rear end joined to the core shaft, wherein the auxiliary wire is more flexible than the distal end portion of the core shaft, a breaking strength of the auxiliary wire is higher than a breaking strength of the distal end portion of the core shaft, and characterized in that a breaking elongation of the auxiliary wire is shorter than a breaking elongation of the distal end portion of the core shaft.