mhurhangee/ep-ind-claims huggingface dataset:
A method for the quantification of N.meningitidis serogroup X capsular polysaccharide conjugate in a sample which method comprises: providing a solid support coated with polyclonal antibody; providing a sample; applying the sample to the polyclonal antibody coated solid support; removing unbound sample; providing monoclonal antibody; applying the monoclonal antibody to the solid support; removing unbound monoclonal antibody; applying labeled secondary antibody; and detecting the label; wherein the said polyclonal antibody and monoclonal antibody recognize two distinct non-overlapping epitopes of N.meningitidis Serogroup X capsular polysaccharide, wherein the assay does not show any interference due to presence of excipients like sucrose and glucose, wherein the sample is lyophilized and is resuspended in phosphate buffer saline having pH 7.2±0.2 comprising of KCl at a concentration from 75mM to 140mM followed by further dilution or the sample is liquid and is directly diluted with phosphate buffer saline having pH 7.2±0.2 comprising of KCl at a concentration from 75mM to 140mM. providing a solid support coated with polyclonal antibody; providing a sample; applying the sample to the polyclonal antibody coated solid support; removing unbound sample; providing monoclonal antibody; applying the monoclonal antibody to the solid support; removing unbound monoclonal antibody; applying labeled secondary antibody; and detecting the label; wherein the said polyclonal antibody and monoclonal antibody recognize two distinct non-overlapping epitopes of N.meningitidis Serogroup X capsular polysaccharide, wherein the assay does not show any interference due to presence of excipients like sucrose and glucose, wherein the sample is lyophilized and is resuspended in phosphate buffer saline having pH 7.2±0.2 comprising of KCl at a concentration from 75mM to 140mM followed by further dilution or the sample is liquid and is directly diluted with phosphate buffer saline having pH 7.2±0.2 comprising of KCl at a concentration from 75mM to 140mM.
A deployable table assembly comprising: - a deployable table, and - a support arm, wherein the deployable table is moveably mounted to the support arm and is moveable in relation to the support arm between a stowed position and a deployed position, wherein the support arm comprises a coverable region that is: - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, wherein the deployable table assembly further comprises: - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position, and - at least partially exposed when the deployable table is in the deployed position, wherein the holder comprises a pivotable arm that is rotatably mounted by a first end to the support arm and wherein a second, opposite end of the pivotable arm provides a first support surface for the electronic device, wherein there is also provided a second support surface for the electronic device, characterised in that the second support surface is provided by a retaining edge mounted on the support arm, and wherein there are a plurality of retaining edges (34a, 34b) mounted on the support arm at different positions along the support arm. - a deployable table, and - a support arm, - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position, and - at least partially exposed when the deployable table is in the deployed position, - at least partially covered by the deployable table element when the deployable table is in the stowed position, and - at least partially exposed when the deployable table is in the deployed position,
A blood treatment system comprising, in combination: a blood separation system configured to separate a blood component from blood at a flow rate and a pressure; and an adsorption device configured to receive at least a portion of said blood component from the blood separation system and process said at least a portion of said blood component, wherein the blood separation system includes a fluid flow element configured for flowing said at least a portion of said blood component into the adsorption device, and a controller which controls the fluid flow element based at least in part on one or more processing parameters including a maximum flow rate of said at least a portion of said blood component flowed into the adsorption device and/or a maximum pressure of said at least a portion of said blood component flowed into the adsorption device, wherein the controller is programmed to allow said blood component to be removed from the blood separation system at a flow rate and/or a pressure that is greater than the flow rate and/or the pressure at which said at least a portion of said blood component is flowed into the adsorption device. a blood separation system configured to separate a blood component from blood at a flow rate and a pressure; and an adsorption device configured to receive at least a portion of said blood component from the blood separation system and process said at least a portion of said blood component, wherein the blood separation system includes a fluid flow element configured for flowing said at least a portion of said blood component into the adsorption device, and a controller which controls the fluid flow element based at least in part on one or more processing parameters including a maximum flow rate of said at least a portion of said blood component flowed into the adsorption device and/or a maximum pressure of said at least a portion of said blood component flowed into the adsorption device, a fluid flow element configured for flowing said at least a portion of said blood component into the adsorption device, and a controller which controls the fluid flow element based at least in part on one or more processing parameters including a maximum flow rate of said at least a portion of said blood component flowed into the adsorption device and/or a maximum pressure of said at least a portion of said blood component flowed into the adsorption device, wherein the controller is programmed to allow said blood component to be removed from the blood separation system at a flow rate and/or a pressure that is greater than the flow rate and/or the pressure at which said at least a portion of said blood component is flowed into the adsorption device.
A clutch controlling apparatus for a vehicle wherein a clutch for transmitting driving force from an engine to a transmission in response to a start permission when both of an engine speed and a throttle opening become higher than a predetermined start permission speed and a predetermined permission opening is controlled by clutch controlling means to start said vehicle, wherein said clutch controlling means includes a clutch-torque capacity reference map in which a clutch-torque capacity is set as a function of at least the engine speed from between the engine speed and the throttle opening, and map correction means for correcting the clutch-torque capacity reference map so that the clutch-torque capacity is reduced in a proportionally reducing manner in response to a difference between the engine speed and the start permission speed when the start permission is issued, and wherein said clutch controlling means is configured so as to connect said clutch with the clutch-torque capacity obtained in accordance with the clutch-torque capacity map corrected by said map correction means to start said vehicle, and wherein said map correction means is configured so as to correct the clutch-torque capacity reference map when the difference between the engine speed and the start permission speed at the time of the start permission is issued is higher than a predetermined value.
Method for smoothing the load peaks of a real-time data network, comprising the following steps: the load peaks that appear in the data network are detected, the number of load peaks over an integration window that has a first duration is counted, the integration window moving over time, the data network is determined as being in a load peak transient phase situation if the number of detected load peaks is higher than a first threshold, then characterized in that it comprises the following steps: mechanisms for protecting the data network are triggered, said mechanisms comprising self-smoothing of the load peaks, during which process a separate time offset is applied to each of the computers connected to the data network that are involved in the load peak transient phase. the load peaks that appear in the data network are detected, the number of load peaks over an integration window that has a first duration is counted, the integration window moving over time, the data network is determined as being in a load peak transient phase situation if the number of detected load peaks is higher than a first threshold, then characterized in that it comprises the following steps: mechanisms for protecting the data network are triggered, said mechanisms comprising self-smoothing of the load peaks, during which process a separate time offset is applied to each of the computers connected to the data network that are involved in the load peak transient phase.
A height-adjustable stilt bearing, comprising a bottom part, a middle part and an upper part, which are arranged along a common vertical main axis, and each of which have a bottom side, an upper side and at least one outer radial surface, and which have, at least on the bottom or upper side (6, 7), at least one support surface region wound in a helical manner, having an incline and being complementary in shape and function, wherein - the support surface region of the bottom part is formed on its upper side and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part, - and the support surface region of the upper part is formed on its bottom part and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part, - and the at least one middle part has at least one support surface region on its upper side, - and said support surface region of the upper side of the middle part is formed to cooperate with the at least one corresponding support surface region of the upper part or a further middle part and to be rotatable relative to the upper part and/or the further middle part, characterized in that - the at least one middle part also has at least one support surface region on its bottom side, which is formed to cooperate with the at least one corresponding support surface region of the bottom part and to be rotatable relative to the bottom part. - the support surface region of the bottom part is formed on its upper side and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part, - and the support surface region of the upper part is formed on its bottom part and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part, - and the at least one middle part has at least one support surface region on its upper side, - and said support surface region of the upper side of the middle part is formed to cooperate with the at least one corresponding support surface region of the upper part or a further middle part and to be rotatable relative to the upper part and/or the further middle part, characterized in that - the at least one middle part also has at least one support surface region on its bottom side, which is formed to cooperate with the at least one corresponding support surface region of the bottom part and to be rotatable relative to the bottom part.
A computer-implemented method, the method comprising: translating coordinates associated with an open area map (601, 700) into real-world coordinates (813, 912, 916), the open area map (601, 700) including an image of a layout representing an unconstrained pedestrian walkable area, wherein the unconstrained pedestrian walkable area is a walkable area in which a pedestrian is not limited to travel only on a set road or path network, and at least a portion of a grid applied on or over at least a portion of the image wherein the grid includes a plurality of tiles at least one of which is a connection tile for linking to a real-world area around the open area map (601, 700) for routing purposes; and linking the open area map (601, 700) with a geographic map or geographic database as a function of the real world coordinates (813, 912, 916), wherein the geographic map or geographic database represent a real-world area around the open area map (601, 700), wherein the open area map (601, 700) is configured to provide point-to-point routing within the layout, wherein the point-to-point routing is based on a calculation of a path formed of adjacent tiles. translating coordinates associated with an open area map (601, 700) into real-world coordinates (813, 912, 916), the open area map (601, 700) including an image of a layout representing an unconstrained pedestrian walkable area, wherein the unconstrained pedestrian walkable area is a walkable area in which a pedestrian is not limited to travel only on a set road or path network, and at least a portion of a grid applied on or over at least a portion of the image wherein the grid includes a plurality of tiles at least one of which is a connection tile for linking to a real-world area around the open area map (601, 700) for routing purposes; and linking the open area map (601, 700) with a geographic map or geographic database as a function of the real world coordinates (813, 912, 916), wherein the geographic map or geographic database represent a real-world area around the open area map (601, 700), wherein the open area map (601, 700) is configured to provide point-to-point routing within the layout, wherein the point-to-point routing is based on a calculation of a path formed of adjacent tiles.
A transfusible white blood cell product consisting of: a) a selected concentration of white blood cells, wherein said white blood cells are present in an amount of approximately 0.1-500 × 10 6 per ml; and b) a medium consisting of a synthetic aqueous solution and, optionally, plasma and/or human serum, wherein the synthetic aqueous solution consists of: approximately 45-120 mM sodium chloride; approximately 5-15 mM sodium citrate; approximately 20-40 mM sodium acetate; approximately 0.05-12 mM of sodium phosphate; approximately 0.05-3 mM magnesium ion; approximately 0.05-10 mM potassium chloride; approximately 5-40 mM sodium bicarbonate; and approximately 0.5-30 mM glucose. a) a selected concentration of white blood cells, wherein said white blood cells are present in an amount of approximately 0.1-500 × 10 6 per ml; and b) a medium consisting of a synthetic aqueous solution and, optionally, plasma and/or human serum, wherein the synthetic aqueous solution consists of: approximately 45-120 mM sodium chloride; approximately 5-15 mM sodium citrate; approximately 20-40 mM sodium acetate; approximately 0.05-12 mM of sodium phosphate; approximately 0.05-3 mM magnesium ion; approximately 0.05-10 mM potassium chloride; approximately 5-40 mM sodium bicarbonate; and approximately 0.5-30 mM glucose. approximately 45-120 mM sodium chloride; approximately 5-15 mM sodium citrate; approximately 20-40 mM sodium acetate; approximately 0.05-12 mM of sodium phosphate; approximately 0.05-3 mM magnesium ion; approximately 0.05-10 mM potassium chloride; approximately 5-40 mM sodium bicarbonate; and approximately 0.5-30 mM glucose.
A method for storing energy, comprising: pumping a fluid down a well and into a hydraulic fracture in a rock formation around the well, the hydraulic fracture being prepared in such way that the fluid leak-off rate of fluid to be stored under pressure can be decreased to a small or minimal value; and before leak-off of the fluid from the hydraulic fracture, reducing pressure in the well so as to produce a portion of the fluid up the well and produce power from the pressure of the produced fluid. pumping a fluid down a well and into a hydraulic fracture in a rock formation around the well, the hydraulic fracture being prepared in such way that the fluid leak-off rate of fluid to be stored under pressure can be decreased to a small or minimal value; and before leak-off of the fluid from the hydraulic fracture, reducing pressure in the well so as to produce a portion of the fluid up the well and produce power from the pressure of the produced fluid.
A cradle for a chair, wherein the chair comprises a chair back having at least one element having an upper end or edge, wherein at least one of the chair back elements comprises a lower edge wherein the cradle comprises at least one hooking means on the rear part of the cradle that enables the cradle to be hooked over an upper end, part or edge of the chair back element(s), wherein the cradle also being capable of standing alone on a base, such as a floor, when it is not hooked onto the chair back and, in both cases, be used as a cradle or a seat for a baby or small child, and where the cradle comprises at least one movable locking device (300, 309, 310) in the rear part of the cradle configured to be brought from an inactive position which does not restrict the movement of the cradle relative to the chair, to an active position where the at least one locking device (300, 309, 310) is configured to bear against at least one lower edge of the chair back element(s) and to lock the cradle to the chair, and wherein the at least one locking device (300, 309, 310) may be housed in the cradle when in an inactive position, characterized in that the locking device(s) (300, 309, 310) is/are operable by a button (130, 131, 301)/buttons or by a lever/levers accessible on the outside of the cradle, alternatively integrated into a handle on the outer sides of the cradle, alternatively integrated into the handle in the form of recesses in the outer sides of the cradle.
Air inlet for an aircraft nacelle, comprising a front frame and a lip (10; 30) which together form a duct with D-shaped section receiving hot air, the front frame being arranged in an advanced position inside the lip, characterized in that: - the lip (10; 30) has de-icing grooves (12; 32), each de-icing groove communicating with the duct with D-shaped section and having a downstream part extending downstream of the front frame; - downstream of the front frame outside of the de-icing grooves (12; 32), the lip (10; 30) has perforated zones (13; 33) provided with sound absorption holes (16; 36); - the air inlet comprises a foil (11; 31), which covers and hermetically seals at least the downstream part of the de-icing grooves, the foil being provided with sound absorption holes (17; 37) facing the perforated zones (13; 33) and being solid facing the de-icing grooves (12; 32); - the air inlet comprises acoustic panels inside the lip downstream of the front frame at least facing the perforated zones (13; 33). - the lip (10; 30) has de-icing grooves (12; 32), each de-icing groove communicating with the duct with D-shaped section and having a downstream part extending downstream of the front frame; - downstream of the front frame outside of the de-icing grooves (12; 32), the lip (10; 30) has perforated zones (13; 33) provided with sound absorption holes (16; 36); - the air inlet comprises a foil (11; 31), which covers and hermetically seals at least the downstream part of the de-icing grooves, the foil being provided with sound absorption holes (17; 37) facing the perforated zones (13; 33) and being solid facing the de-icing grooves (12; 32); - the air inlet comprises acoustic panels inside the lip downstream of the front frame at least facing the perforated zones (13; 33).
A mobile terminal, comprising a processor, and a face image collection device and a memory coupled to the processor, wherein the face image collection device is configured to collect a face image; the memory is configured to store a target data processing algorithm and a certificate corresponding to the target data processing algorithm; the processor is configured to carry out following actions, comprising: detecting a first process requesting to call the target data processing algorithm; determining the certificate corresponding to the target data processing algorithm, the target data processing algorithm being one of a plurality of data processing algorithms associated with a currently launched face recognition application; obtaining a set of process names associated with the certificate; detecting that the set of process names comprises a process name of the first process; calling the certificate to detect whether the first processing has a legal identity based on a certificate authentication mechanism; and processing reference data associated with the first process by using the target data processing algorithm in response to determining that the first process has the legal identity. the face image collection device is configured to collect a face image; the memory is configured to store a target data processing algorithm and a certificate corresponding to the target data processing algorithm; the processor is configured to carry out following actions, comprising: detecting a first process requesting to call the target data processing algorithm; determining the certificate corresponding to the target data processing algorithm, the target data processing algorithm being one of a plurality of data processing algorithms associated with a currently launched face recognition application; obtaining a set of process names associated with the certificate; detecting that the set of process names comprises a process name of the first process; calling the certificate to detect whether the first processing has a legal identity based on a certificate authentication mechanism; and processing reference data associated with the first process by using the target data processing algorithm in response to determining that the first process has the legal identity. detecting a first process requesting to call the target data processing algorithm; determining the certificate corresponding to the target data processing algorithm, the target data processing algorithm being one of a plurality of data processing algorithms associated with a currently launched face recognition application; obtaining a set of process names associated with the certificate; detecting that the set of process names comprises a process name of the first process; calling the certificate to detect whether the first processing has a legal identity based on a certificate authentication mechanism; and processing reference data associated with the first process by using the target data processing algorithm in response to determining that the first process has the legal identity.
Method for operating an open-end rotor spinning machine having a plurality of workstations, which in each case comprise a spinning device with a rotor housing, to which negative pressure can be applied, in which a spinning rotor revolves at a high rotational speed, to produce a yarn, as well as a winding device for producing a cross-wound bobbin, wherein the connection of the workstations to a central negative pressure supply can be selectively switched off, characterised in that the application of negative pressure to the rotor housing takes place in groups for a plurality of workstations and is restricted to the spinning devices which are producing yarn and the spinning devices which are repiecing and in that the control of negative pressure to the entire machine is performed as a function of the number of workstations, which are supplied with negative pressure.