mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling that a lysate obtained from sufficient biological sample material was subjected to a nucleic acid amplification reaction, comprising a) using a composition for preparing a lysate, wherein said composition comprises at least one compound which comprises at least one anionic group, wherein compound inhibits the amplification reaction if no sufficient biological sample material was added for obtaining the lysate but does not inhibit the amplification reaction if sufficient biological sample material was added for obtaining the lysate; b) optionally further processing the lysate; c) using at least a portion of the lysate in an amplification reaction; wherein said method comprises analyzing the amplification result, wherein due to the presence of compound in the amplification reaction, no amplification signal is obtained if no sufficient biological sample material was added for obtaining the lysate but wherein an amplification signal is obtained if sufficient biological sample material was added for obtaining the lysate, wherein the method includes an amplification control, wherein (i) the amplification control is an internal amplification control comprised in the amplification reaction, or (ii) the amplification control is performed in a parallel amplification reaction, wherein said amplification reaction comprising the amplification control is prepared using the same lysate that is used in the amplification reaction, and wherein compound is selected from the group consisting of water-soluble polyanionic polymers which comprise carboxylate-containing monomers, anionic detergents comprising a sulfonate group, and zwitterionic detergents comprising a sulfonate group. a) using a composition for preparing a lysate, wherein said composition comprises at least one compound which comprises at least one anionic group, wherein compound inhibits the amplification reaction if no sufficient biological sample material was added for obtaining the lysate but does not inhibit the amplification reaction if sufficient biological sample material was added for obtaining the lysate; b) optionally further processing the lysate; c) using at least a portion of the lysate in an amplification reaction; (i) the amplification control is an internal amplification control comprised in the amplification reaction, or (ii) the amplification control is performed in a parallel amplification reaction, wherein said amplification reaction comprising the amplification control is prepared using the same lysate that is used in the amplification reaction, and
A resilient hinge, in particular for the suspension of the wheels of an automobile, comprising an inner frame, an outer frame surrounding the inner frame such that the frames (3, 5) define an axial direction and two radial directions that are perpendicular to the axial direction and perpendicular to each other, referred to as a main radial direction and a secondary radial direction, and an elastomeric body for the mutual resilient support of the frames (3, 5), characterized in that the elastomeric body comprises at least four linking columns (11 a, 11 b, 11 c, 11 d, 11 e, 11 f) extending respectively from the inner frame to the outer frame, and in that all the linking columns (11 a, 11 b, 11 c, 11 d, 11 e, 11 f) extend principally in the main radial direction from the inner frame to the outer frame.
A transdermal patch for treatment of Alzheimer's disease, comprising: a backing; a rivastigmine-containing layer provided on the backing; a pressure-sensitive adhesive layer provided on the rivastigmine-containing layer; and a release liner, or comprising: a backing; a pressure-sensitive adhesive layer provided on the backing; a rivastigmine-containing layer provided on the pressure-sensitive adhesive layer; and a release liner, wherein the rivastigmine-containing layer contains rivastigmine and an alkyl (meth)acrylate resin, the pressure-sensitive adhesive layer is composed of an acrylic pressure-sensitive adhesive containing a (meth)acrylic acid ester having a hydroxy group, neither the rivastigmine-containing layer nor the pressure-sensitive adhesive layer contains an anti-oxidizing agent, and the transdermal patch includes a degradation product of the rivastigmine in a total amount of less than 0.50% by mass based on an amount of the rivastigmine after storage under a severe condition (60 °C) for two weeks from a production date of the transdermal patch. a backing; a rivastigmine-containing layer provided on the backing; a pressure-sensitive adhesive layer provided on the rivastigmine-containing layer; and a release liner, or comprising: a backing; a pressure-sensitive adhesive layer provided on the backing; a rivastigmine-containing layer provided on the pressure-sensitive adhesive layer; and a release liner, wherein the rivastigmine-containing layer contains rivastigmine and an alkyl (meth)acrylate resin, the pressure-sensitive adhesive layer is composed of an acrylic pressure-sensitive adhesive containing a (meth)acrylic acid ester having a hydroxy group, neither the rivastigmine-containing layer nor the pressure-sensitive adhesive layer contains an anti-oxidizing agent, and a backing; a pressure-sensitive adhesive layer provided on the backing; a rivastigmine-containing layer provided on the pressure-sensitive adhesive layer; and a release liner, wherein the rivastigmine-containing layer contains rivastigmine and an alkyl (meth)acrylate resin, the pressure-sensitive adhesive layer is composed of an acrylic pressure-sensitive adhesive containing a (meth)acrylic acid ester having a hydroxy group, neither the rivastigmine-containing layer nor the pressure-sensitive adhesive layer contains an anti-oxidizing agent, and
An optical sensor comprising: an irradiation system including at least one light irradiator to irradiate a test object with light, wherein the light irradiator includes a multilayered structure having an active layer, and the multilayered structure includes at least one surface-emitting laser element and a photo-sensing element that is another part of the multilayer structure; and a detection system configured to detect the light that is emitted from the irradiation system to the test object and has propagated through the test object; wherein the at least one surface-emitting laser element and the photo-sensing element independently have respective mesa structures each including the active layer, characterised in that the multilayered structure includes a spacer layer integral to the structure and that integrally covers bottoms of the respective mesa structures of the at least one surface-emitting laser element and the photo-sensing element, respectively, and each of the bottoms of the respective mesa structures of the surface-emitting laser element and the photo-sensing element is adjacent to the active layer of the corresponding mesa structure, and the at least one surface-emitting laser element and the photo-sensing element are optically attached to each other at least via the spacer layer. an irradiation system including at least one light irradiator to irradiate a test object with light, wherein the light irradiator includes a multilayered structure having an active layer, and the multilayered structure includes at least one surface-emitting laser element and a photo-sensing element that is another part of the multilayer structure; and a detection system configured to detect the light that is emitted from the irradiation system to the test object and has propagated through the test object; wherein the at least one surface-emitting laser element and the photo-sensing element independently have respective mesa structures each including the active layer, characterised in that the multilayered structure includes a spacer layer integral to the structure and that integrally covers bottoms of the respective mesa structures of the at least one surface-emitting laser element and the photo-sensing element, respectively, and each of the bottoms of the respective mesa structures of the surface-emitting laser element and the photo-sensing element is adjacent to the active layer of the corresponding mesa structure, and the at least one surface-emitting laser element and the photo-sensing element are optically attached to each other at least via the spacer layer.
An axle support of a vehicle, with at least one longitudinal member, which comprises a braided profile which is formed from a fibre composite plastic and which has one or more braided layers formed by the reinforcement threads of the fibre composite plastic, characterised by a node element, which is embodied as an injection-moulded part or as a node element produced by SMC technology and which connects the longitudinal member to a cross-member via an adhesive connection.
Saccharomyces cerevisiae yeast strain chosen from the yeast strain deposited on July 25, 2013, at the CNCM under number 1-4791, the yeast strain deposited on July 25, 2013, at the CNCM under number 1-4790, and the yeast strain deposited on July 25, 2013, under number 1-4792.
Method for determining a current charge level (SOCO, SOC1, SOC2) of the battery of a specified battery type, having the steps: a) providing a characteristic map which for respective various predetermined temperature ranges (ΔT) specifies an internal resistance (Ri) for the specified battery type as a dependency on the charge level for the specified battery type, b) measuring a current temperature of the battery; c) determining a current internal resistance value (RiO, Ri1) of the battery; and d) on the basis of the current temperature and the current internal resistance value (RiO, Ri1) specifying the current charge level (SOCO, SOC1, SOC2) of the battery by means of the characteristic map; characterized in that in the case that the measured current temperature lies in one of the prespecified temperature ranges, in which the dependency of the internal resistance (Ri) on the charge level for an internal resistance value (RiO, Ri1) of the characteristic map has an extreme, the charge level (SOC1, SOC2) of the battery is specified by means of the characteristic map such that it is verified whether at least two charge levels (SOC1, SOC2) exist in the characteristic map, which according to the dependency are assigned to the measured internal resistance value (RiO, Ri1) for the prespecified temperature range in which the current temperature lies, and in this case, the at least two charge levels (SOC1, SOC2) are specified from the characteristic map, and the current charge level (SOC1, SOC2) of the battery is equated, according to a prespecified selection method, with one of the at least two charge levels (SOC1, SOC2), wherein according to the prespecified selection method the charge level (SOC1, SOC2) of the battery is equated with one of the at least two charge levels (SOC1, SOC2) specified from the characteristic map depending on: - an internal resistance value determined in a previous time step; and/or - a current charging situation of the battery, i.e. depends on whether the battery is currently being charged or being discharged. a) providing a characteristic map which for respective various predetermined temperature ranges (ΔT) specifies an internal resistance (Ri) for the specified battery type as a dependency on the charge level for the specified battery type, b) measuring a current temperature of the battery; c) determining a current internal resistance value (RiO, Ri1) of the battery; and d) on the basis of the current temperature and the current internal resistance value (RiO, Ri1) specifying the current charge level (SOCO, SOC1, SOC2) of the battery by means of the characteristic map; - an internal resistance value determined in a previous time step; and/or - a current charging situation of the battery, i.e. depends on whether the battery is currently being charged or being discharged.
A wireless appliance, suitable for being operated on an induction heating cooktop having one or more than one induction coil, comprising a user interface that provides monitoring and controlling of the operating parameters, a microcontroller that contains information about the operating parameters recorded in its memory, a receiver coil that partially collects the power generated by the induction coil, characterized in that an encoding unit that is connected to the microcontroller and the receiver coil, that changes the power received from the induction coil by the receiver coil according to the identification information in the memory of the microcontroller and the operating parameters entered by means of the user interface and that provides power change data to be delivered to the induction heating cooktop via the induction coil.
A method of inspecting a wheel hub unit that is configured by attaching a bearing that has an inner ring and an outer ring to a hub wheel, in which an acoustic inspection element or a runout detection element is arranged at an inspected position of an inspection object as a component, which is different from a non-inspection object as a component other than the inspection object, the inspection object is inspected by rotating the inspection object or the non-inspection object in a case where the acoustic inspection element is used, and the inspection object is inspected by rotating the inspection object in a case where the runout detection element is used, the method characterized by comprising: applying, to the bearing, a preload that is equal to or higher than a load at which an internal clearance as a moving distance in a case where one of the inner ring and the outer ring is fixed and the other one of the inner ring and the outer ring is moved in an axial direction is a negative clearance, and changing the internal clearance of the bearing from a positive clearance before application of the preload to a negative clearance after application of the preload, when the inspection object or the non-inspection object is rotated. applying, to the bearing, a preload that is equal to or higher than a load at which an internal clearance as a moving distance in a case where one of the inner ring and the outer ring is fixed and the other one of the inner ring and the outer ring is moved in an axial direction is a negative clearance, and changing the internal clearance of the bearing from a positive clearance before application of the preload to a negative clearance after application of the preload, when the inspection object or the non-inspection object is rotated.
A method for identifying platelets within a biologic fluid sample, comprising: adding at least one colorant to the sample which colorant is operable to tag the platelets; imaging at least a portion of the sample quiescently residing within a chamber to create one or more images; and identifying one or more platelets within the sample using an analyzer adapted to identify the platelets within the one or more images, which identifying includes comparing an image intensity value of plasma to an image intensity value of the one or more platelets. adding at least one colorant to the sample which colorant is operable to tag the platelets; imaging at least a portion of the sample quiescently residing within a chamber to create one or more images; and identifying one or more platelets within the sample using an analyzer adapted to identify the platelets within the one or more images, which identifying includes comparing an image intensity value of plasma to an image intensity value of the one or more platelets.
A display device comprising: a display module including a display panel; at least one pair of first and second spacers (610a, 610b) disposed at the rear of the display module and fixed to the display module; and a wall mount assembly disposed at the rear of a back cover and fastened to the first and second spacers (610a, 610b) while allowing tilting movements of the display module and the first and second spacers (610a, 610b), wherein, in a tilting movement, one lateral side of the display module moves up or down from an initial state while the opposite lateral side of the display module moves in the opposite direction, wherein the wall mount assembly includes: a fixing part fixed to a fixed object; a frame having a pair of first and second tilting holes (71a, 71b) into which the first and second spacers (610a, 610b) are respectively inserted, and which guides moving paths of the first and second spacers (610a, 610b) such that the display module can be tilted in response to the shape of the tilting holes (71a, 71b), and a locking part for selectively restricting the moving paths of the first and second spacers (610a, 610b) inserted into the first and second tilting holes (71a, 71b); and a link connecting the fixing part and the frame to each other. a display module including a display panel; at least one pair of first and second spacers (610a, 610b) disposed at the rear of the display module and fixed to the display module; and a wall mount assembly disposed at the rear of a back cover and fastened to the first and second spacers (610a, 610b) while allowing tilting movements of the display module and the first and second spacers (610a, 610b), wherein, in a tilting movement, one lateral side of the display module moves up or down from an initial state while the opposite lateral side of the display module moves in the opposite direction, wherein the wall mount assembly includes: a fixing part fixed to a fixed object; a frame having a pair of first and second tilting holes (71a, 71b) into which the first and second spacers (610a, 610b) are respectively inserted, and which guides moving paths of the first and second spacers (610a, 610b) such that the display module can be tilted in response to the shape of the tilting holes (71a, 71b), and a locking part for selectively restricting the moving paths of the first and second spacers (610a, 610b) inserted into the first and second tilting holes (71a, 71b); and a link connecting the fixing part and the frame to each other. a fixing part fixed to a fixed object; a frame having a pair of first and second tilting holes (71a, 71b) into which the first and second spacers (610a, 610b) are respectively inserted, and which guides moving paths of the first and second spacers (610a, 610b) such that the display module can be tilted in response to the shape of the tilting holes (71a, 71b), and a locking part for selectively restricting the moving paths of the first and second spacers (610a, 610b) inserted into the first and second tilting holes (71a, 71b); and a link connecting the fixing part and the frame to each other.
Alloy, which contains at least the following elements (data in wt%): 22% - 24% cobalt (Co), 14% - 16% chromium (Cr), 10.5% - 11.5% aluminum (Al), 0.2% - 0.4% of at least one metal from the group comprising scandium (Sc) and/or the rare earth elements, optionally from 0.3% to 0.9% tantalum (Ta), which does not contain silicon (Si), remainder nickel (Ni). 22% - 24% cobalt (Co), 14% - 16% chromium (Cr), 10.5% - 11.5% aluminum (Al), 0.2% - 0.4% of at least one metal from the group comprising scandium (Sc) and/or the rare earth elements, optionally from 0.3% to 0.9% tantalum (Ta), which does not contain silicon (Si), remainder nickel (Ni).
An apparatus configured to apply thermal energy to the contents of a receptacle vessel to increase the temperature of the contents of the receptacle vessel and to detect an optical signal emitted by the contents of the receptacle vessel as the temperature of the contents is rising, the apparatus comprising: a receptacle holder configured to receive and releasably hold a receptacle vessel; a vessel-receiving thermal assembly including a portion thereof held at a constant elevated temperature relative to ambient temperature and configured to receive at least a portion of the receptacle vessel and to apply thermal energy to the contents of the receptacle vessel; a receptacle moving mechanism configured to effect relative movement between the receptacle holder and the vessel-receiving thermal assembly to place at least a portion of the receptacle vessel held by the receptacle holder into the vessel-receiving thermal assembly and to remove the portion of the receptacle vessel from the vessel-receiving thermal assembly, wherein the receptacle moving mechanism comprises a receptacle elevator constructed and arranged to raise and lower the receptacle holder relative to the vessel-receiving thermal assembly to place the portion of the receptacle vessel held by the receptacle holder into the vessel-receiving thermal assembly and to remove the portion of the receptacle vessel from the vessel-receiving thermal assembly; and an optical signal detecting device constructed and arranged to detect optical signals emitted by the contents of a receptacle vessel held within the vessel-receiving thermal assembly while thermal energy is being applied to the contents by the vessel-receiving thermal assembly. a receptacle holder configured to receive and releasably hold a receptacle vessel; a vessel-receiving thermal assembly including a portion thereof held at a constant elevated temperature relative to ambient temperature and configured to receive at least a portion of the receptacle vessel and to apply thermal energy to the contents of the receptacle vessel; a receptacle moving mechanism configured to effect relative movement between the receptacle holder and the vessel-receiving thermal assembly to place at least a portion of the receptacle vessel held by the receptacle holder into the vessel-receiving thermal assembly and to remove the portion of the receptacle vessel from the vessel-receiving thermal assembly, wherein the receptacle moving mechanism comprises a receptacle elevator constructed and arranged to raise and lower the receptacle holder relative to the vessel-receiving thermal assembly to place the portion of the receptacle vessel held by the receptacle holder into the vessel-receiving thermal assembly and to remove the portion of the receptacle vessel from the vessel-receiving thermal assembly; and an optical signal detecting device constructed and arranged to detect optical signals emitted by the contents of a receptacle vessel held within the vessel-receiving thermal assembly while thermal energy is being applied to the contents by the vessel-receiving thermal assembly.
Use of a lubricant base stock, comprising at least one ester obtained by esterifying 2-propylheptanoic acid with at least one 2,2-substituted 1,3-propanediol and/or at least one dimer, trimer or polymer thereof and/or at least one alkoxylated species of a said 2,2-substituted 1,3-propanediol or a said dimer, trimer or polymer thereof, in the production of a lubricant for internal combustion engines and turbine engines.
Process for the production of the compounds of formula by selective dehydrogenation of the compounds of formula wherein R is -CHO or -CH 2 OH, wherein the dehydrogenation is carried out in the presence of at least one transition metal catalyst. R is -CHO or -CH 2 OH, wherein the dehydrogenation is carried out in the presence of at least one transition metal catalyst.