mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic injection monitoring device configured to mate with a syringe having a flange, comprising: a channel configured to receive at least a portion of the syringe; one or more flange members configured to couple to the flange of the syringe and to be gripped during performance of an injection; one or more force sensors connected to the flange members , wherein the one or more force sensors are oriented to detect data associated with an amount of force applied to an underside of the injection monitoring device during performance of an injection ; a communication module configured to transmit data from the force sensors to an external device ; a sensor configured to detect deployment of a safety shield of the syringe, wherein the sensor is a switch configured to activate in response to movement of a housing member of the syringe during deployment of the safety shield. a channel configured to receive at least a portion of the syringe; one or more flange members configured to couple to the flange of the syringe and to be gripped during performance of an injection; one or more force sensors connected to the flange members , wherein the one or more force sensors are oriented to detect data associated with an amount of force applied to an underside of the injection monitoring device during performance of an injection ; a communication module configured to transmit data from the force sensors to an external device ; a sensor configured to detect deployment of a safety shield of the syringe, wherein the sensor is a switch configured to activate in response to movement of a housing member of the syringe during deployment of the safety shield.
A water vapor observing system for observing water vapor contained within atmospheric air, comprising: a transmission unit (Tx) configured to transmit transmission waves; a first reception unit (Rx) being positioned at a different position from the transmission unit (Tx) and configured to receive a first wavefrom the transmission unit (Tx); a second reception unit (Rx) being positioned at a different position from the transmission unit (Tx) and the first reception unit (Rx) and configured to receive a second wave from the transmission unit (Tx); and a water vapor amount calculating module , characterized in that the water vapor amount calculating module is formed by a relative water vapor amount calculating module configured to calculate, based on the first and second waves, an amount of water vapor in a passing area of the second r wave with reference to an amount of water vapor in a passing area of the first wave, as a position-based relative water vapor amount. a transmission unit (Tx) configured to transmit transmission waves; a first reception unit (Rx) being positioned at a different position from the transmission unit (Tx) and configured to receive a first wavefrom the transmission unit (Tx); a second reception unit (Rx) being positioned at a different position from the transmission unit (Tx) and the first reception unit (Rx) and configured to receive a second wave from the transmission unit (Tx); and a water vapor amount calculating module , characterized in that the water vapor amount calculating module is formed by a relative water vapor amount calculating module configured to calculate, based on the first and second waves, an amount of water vapor in a passing area of the second r wave with reference to an amount of water vapor in a passing area of the first wave, as a position-based relative water vapor amount.
Use of a graphene-based sheet for incrementing the protection to fire and/or the mechanical damping and/or the thermal dissipation of a composite material and/or for shielding against electro-magnetic waves, wherein said graphene-based sheet comprising graphene nanoplatelets in a weight concentration comprised between 75% and 99% and a polymeric matrix in a weight concentration comprised between 1% and 25%, preferably no more than 20%.
A method for reducing or eliminating a saltwater solution that is generated as a result of oil and gas production, fracking, or other processes, comprising: (a) delivering the saltwater solution through an evaporative fluid cooler which evaporates a portion of the water in the saltwater solution to produce a concentrated saltwater solution and (b) boiling off or evaporating additional water from the concentrated saltwater solution, to produce a further concentrated stream, characterized by : (c) driving an electrical generator using a zero emissions engine (ZEE) which produces a ZEE exhaust stream, wherein the ZEE exhaust stream is used in step (b) to heat the concentrated saltwater solution, and optionally to heat liquid nitrogen to drive a nitrogen turbine. (a) delivering the saltwater solution through an evaporative fluid cooler which evaporates a portion of the water in the saltwater solution to produce a concentrated saltwater solution and (b) boiling off or evaporating additional water from the concentrated saltwater solution, to produce a further concentrated stream,
A facial mask for use in decreasing the transmission of one or more than one human pathogen to and from a human wearer of the facial mask , the facial mask comprising: a) a facepiece comprising a front side , a back side and a perimeter around the front side and back side , and the facepiece is configured to cover the mouth and nose of the wearer of the facial mask ; and b) one or more than one extension attached to the facepiece for securing the facial mask to the head of the wearer; where the facepiece comprises a material comprising three or more than three layers; where one or more than one of the three or more than three layers comprises a cellulose fabric having a hydroxyl group or an amino group, the fabric comprising one or more than one binding substance; where the one or more than one binding substance comprises one or more than one human pathogen binding group for chemically attaching the human pathogen to the binding substance; where the human pathogen binding group is selected from the group consisting of a sulfate group and a sulfonate group; where the fabric further comprises one or more than one type of multivalent metallic ion or metallic salt; and where one or more than one of the three or more than three layers comprises a heat-moldable fabric ; characterized in that the human pathogen binding group is covalently bound to the hydroxyl group of the fabric; and if sulfated, the fabric has a degree of sulfation between 0.02 and 2. a) a facepiece comprising a front side , a back side and a perimeter around the front side and back side , and the facepiece is configured to cover the mouth and nose of the wearer of the facial mask ; and b) one or more than one extension attached to the facepiece for securing the facial mask to the head of the wearer;
A computer-implemented method for object detection comprising: generating a feature representation of an input image; and performing object detection on the input image by applying a multi-stage cascade classifier to the feature representation; determining directional weighted averages for individual pixels of an input image based at least in part on pixel values of the plurality of neighbor pixels for each of the individual pixels and weights associated with locations of each of the neighbor pixels relative to the individual pixels, wherein the neighbor pixels comprise 8 pixels arranged at the corners and centered along the edges of a 5 by 5 pixel window around the individual pixel and wherein the weights associated with the locations of each of the neighbor pixels comprise a weight of 1 for corner pixels and a weight of 2 for pixels centered along the edge of the 5 by 5 window and wherein the individual pixel is assigned a weight of 4; wherein generating the feature representation comprises generating a binary coded image for the input image by assigning, for each of the individual pixels, the neighbor pixels thereof a value of 0 or 1 based on a comparison of each pixel value of the neighbor pixels to the directional weighted average of the individual pixel and determining a binary coded representation for each of the individual pixels by arranging the assigned values of the neighbor pixels thereof into an order. generating a feature representation of an input image; and performing object detection on the input image by applying a multi-stage cascade classifier to the feature representation; determining directional weighted averages for individual pixels of an input image based at least in part on pixel values of the plurality of neighbor pixels for each of the individual pixels and weights associated with locations of each of the neighbor pixels relative to the individual pixels, wherein the neighbor pixels comprise 8 pixels arranged at the corners and centered along the edges of a 5 by 5 pixel window around the individual pixel and wherein the weights associated with the locations of each of the neighbor pixels comprise a weight of 1 for corner pixels and a weight of 2 for pixels centered along the edge of the 5 by 5 window and wherein the individual pixel is assigned a weight of 4; wherein generating the feature representation comprises generating a binary coded image for the input image by assigning, for each of the individual pixels, the neighbor pixels thereof a value of 0 or 1 based on a comparison of each pixel value of the neighbor pixels to the directional weighted average of the individual pixel and determining a binary coded representation for each of the individual pixels by arranging the assigned values of the neighbor pixels thereof into an order.
A method for processing a Secondary Node Radio Resource Control, SN RRC, message, characterized by comprising: when it is determined , by User Equipment, UE, that a triggering condition is satisfied, performing, by the UE, a first Primary Secondary Cell, PSCell, change; and stopping , by the UE, receiving a first SN RRC message from a source Secondary Node, SN, during the first PSCell change. when it is determined , by User Equipment, UE, that a triggering condition is satisfied, performing, by the UE, a first Primary Secondary Cell, PSCell, change; and stopping , by the UE, receiving a first SN RRC message from a source Secondary Node, SN, during the first PSCell change.
Coating material for coating a printing plate, comprising - a fluid source material which can be polymerised by UV light in order to form a polymer matrix; and - a filler substance, which is of sub-microscale size; - wherein - in addition to the sub-microscale filling substance, the coating material contains a further filling substance; - wherein further - the sub-microscale filling substance is present in particle form, and its size lies in a range between 100 nm and 999 nm; - the further filling substance is a nanoscale filling substance, in such a way that the further filling substance comprises filling substance particles of a nanoscale size in a range between 1 nm and 99 nm; - the sub-microscale filling substance consists of at least one metal oxide and/or a semimetal oxide, selected from metal oxide-coated mica, TiO 2 or (Sn, Sb)O 2 ; - the nanoscale filling substance is a metal oxide and/or semimetal oxide, selected from Al 2 O 3 , SiO 2 , TiO 2 , ZrO 2 , or metal organic particles; wherein - the sub-microscale filling substance can be covalently bonded into a polymer matrix of the source material; - the nanoscale filling substance is contained in order to increase the wear resistance, which can be covalently bonded into the polymer matrix of the source material; and - by means of the sub-microscale filling substance, an absorption of IR radiation can be incurred in the source material which is higher than an absorption without filling substance. - a fluid source material which can be polymerised by UV light in order to form a polymer matrix; and - a filler substance, which is of sub-microscale size; - wherein - in addition to the sub-microscale filling substance, the coating material contains a further filling substance; - wherein further - the sub-microscale filling substance is present in particle form, and its size lies in a range between 100 nm and 999 nm; - the further filling substance is a nanoscale filling substance, in such a way that the further filling substance comprises filling substance particles of a nanoscale size in a range between 1 nm and 99 nm; - the sub-microscale filling substance consists of at least one metal oxide and/or a semimetal oxide, selected from metal oxide-coated mica, TiO 2 or (Sn, Sb)O 2 ; - the nanoscale filling substance is a metal oxide and/or semimetal oxide, selected from Al 2 O 3 , SiO 2 , TiO 2 , ZrO 2 , or metal organic particles; wherein - the sub-microscale filling substance can be covalently bonded into a polymer matrix of the source material; - the nanoscale filling substance is contained in order to increase the wear resistance, which can be covalently bonded into the polymer matrix of the source material; and - by means of the sub-microscale filling substance, an absorption of IR radiation can be incurred in the source material which is higher than an absorption without filling substance.
An orientation calculation apparatus for obtaining data from an input device comprising at least a gyro sensor and an acceleration sensor , so as to calculate an orientation of the input device, the orientation calculation apparatus comprising: orientation calculation means for calculating (S4) a first orientation (v1) of the input device in accordance with an angular rate detected by the gyro sensor and for calculating (S17) a second orientation (v2') of the input device relative to gravity in accordance with acceleration data detected by the acceleration sensor; and correction means (10, S5) for calculating a value representing the difference between a magnitude of an acceleration represented by the acceleration data detected by the acceleration sensor and a magnitude of the gravitational acceleration and, if the difference is smaller than a predetermined reference, for correcting the first orientation such that the first orientation approaches the second orientation (v2') of the input device as the magnitude of the acceleration becomes closer to the magnitude of the gravitational acceleration. orientation calculation means for calculating (S4) a first orientation (v1) of the input device in accordance with an angular rate detected by the gyro sensor and for calculating (S17) a second orientation (v2') of the input device relative to gravity in accordance with acceleration data detected by the acceleration sensor; and correction means (10, S5) for calculating a value representing the difference between a magnitude of an acceleration represented by the acceleration data detected by the acceleration sensor and a magnitude of the gravitational acceleration and, if the difference is smaller than a predetermined reference, for correcting the first orientation such that the first orientation approaches the second orientation (v2') of the input device as the magnitude of the acceleration becomes closer to the magnitude of the gravitational acceleration.
Operating method for a computer of a computer network, wherein the computer network has a number of workstations , via which a respective user executes at least one respective application while processing respective useful data , wherein the computer executes a resource management program , wherein the computer , on the basis of the execution of the resource management program , - at least when starting the respective application , automatically determines a resource requirement (R) for the respective application on the basis of application data predefined for the respective application , - automatically requests resources at a cloud computer , which manages resources of a cloud , according to the determined resource requirement (R), - automatically receives an allocation (Z) of resources from the cloud computer on the basis of the request (A), wherein the allocation (Z) contains the access data which is required in order to be able to access the allocated resources , - automatically allocates the resources , which were allocated on the basis of the request (A) for the respective application , to the respective application , - starting from the allocation of the resources to the respective application , automatically monitors whether a respective release condition, which is dependent upon the respective application , but not other applications , occurs for the resources allocated to the respective application , - maintains the allocation of the resources , which were allocated to the respective application , to the respective application until the respective release condition is met, and - when the respective release condition occurs, automatically returns the resources allocated to the respective application to the cloud . - at least when starting the respective application , automatically determines a resource requirement (R) for the respective application on the basis of application data predefined for the respective application , - automatically requests resources at a cloud computer , which manages resources of a cloud , according to the determined resource requirement (R), - automatically receives an allocation (Z) of resources from the cloud computer on the basis of the request (A), wherein the allocation (Z) contains the access data which is required in order to be able to access the allocated resources , - automatically allocates the resources , which were allocated on the basis of the request (A) for the respective application , to the respective application , - starting from the allocation of the resources to the respective application , automatically monitors whether a respective release condition, which is dependent upon the respective application , but not other applications , occurs for the resources allocated to the respective application , - maintains the allocation of the resources , which were allocated to the respective application , to the respective application until the respective release condition is met, and - when the respective release condition occurs, automatically returns the resources allocated to the respective application to the cloud .
An oral dosage formulation that is a tablet comprising an intra-granular component, an extra-granular component, and a film coating component wherein the intra-granular component comprises 55% to 75% by weight of {[5-(3-chlorophenyl)-3-hydroxypyridine-2-carbonyl]amino}acetic acid, or a pharmaceutically acceptable salt thereof, 15% to 35% by weight of an insoluble diluent or carrier, 2.0% to 4.0% by weight of a disintegrant, and 1.8% to 3.8% by weight of a diluent or filler; wherein the extra-granular component comprises 2.0% to 4.0% by weight of a disintegrant, 0.15% to 0.35% by weight of a glidant, and 0.35% to 1.15% by weight of a lubricant; wherein the film coating component comprises 1.0% to 8% by weight of a tablet coating; and wherein the weight is the total weight of all intra-granular and extra-granular components. wherein the intra-granular component comprises 55% to 75% by weight of {[5-(3-chlorophenyl)-3-hydroxypyridine-2-carbonyl]amino}acetic acid, or a pharmaceutically acceptable salt thereof, 15% to 35% by weight of an insoluble diluent or carrier, 2.0% to 4.0% by weight of a disintegrant, and 1.8% to 3.8% by weight of a diluent or filler; 55% to 75% by weight of {[5-(3-chlorophenyl)-3-hydroxypyridine-2-carbonyl]amino}acetic acid, or a pharmaceutically acceptable salt thereof, 15% to 35% by weight of an insoluble diluent or carrier, 2.0% to 4.0% by weight of a disintegrant, and 1.8% to 3.8% by weight of a diluent or filler; wherein the extra-granular component comprises 2.0% to 4.0% by weight of a disintegrant, 0.15% to 0.35% by weight of a glidant, and 0.35% to 1.15% by weight of a lubricant; 2.0% to 4.0% by weight of a disintegrant, 0.15% to 0.35% by weight of a glidant, and 0.35% to 1.15% by weight of a lubricant; wherein the film coating component comprises 1.0% to 8% by weight of a tablet coating; and wherein the weight is the total weight of all intra-granular and extra-granular components.
An in vitro method for identifying a compound for use in a palatable foodstuff for cat consumption, wherein the compound binds to and/or modulates the activity of a polypeptide comprising; (i) the amino acid sequence as set out in SEQ ID NO:1; or (ii) an amino acid sequence having at least 90% identity to SEQ ID NO:1; the method comprising: (i) contacting the polypeptide with a compound; (ii) measuring the biological activity of the polypeptide in the absence and in the presence of the compound; and (iii) identifying the compound as one which binds to or modulates the biological activity of the polypeptide, when there is a difference between the biological activity in the absence, compared to the presence of the compound, determining whether a test compound binds to and/or modulates the activity of the polypeptide. (i) the amino acid sequence as set out in SEQ ID NO:1; or (ii) an amino acid sequence having at least 90% identity to SEQ ID NO:1; (i) contacting the polypeptide with a compound; (ii) measuring the biological activity of the polypeptide in the absence and in the presence of the compound; and (iii) identifying the compound as one which binds to or modulates the biological activity of the polypeptide, when there is a difference between the biological activity in the absence, compared to the presence of the compound, determining whether a test compound binds to and/or modulates the activity of the polypeptide.
Method for producing composite floors, in which timber elements are placed directly adjacent to one another on supports and are connected to one another, wherein a composite floor is produced by applying a concrete layer , and wherein connecting elements are fastened to the timber elements and then reinforcing elements are placed on the connecting elements , characterised in that the reinforcing elements are connected to the connecting elements without play, and in that a connecting element is used in each case for connecting two directly adjacent timber elements and in that a connecting element is inserted into a groove which is formed between two directly adjacent timber elements .