mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing lyophilized platelet lysates, comprising: concentrating platelets from a platelet source to form a platelet rich portion of the platelet source; lysing the platelets in the platelet rich portion via a freeze-thaw cycle, wherein the freeze-thaw cycle is repeated at least once to form at least 30% lysates by platelet count from the platelet rich portion; and lyophilizing the lysates to form lyophilized platelet lysates in a composition which also includes released concentrations of available growth factors, cytokines, and chemokines. concentrating platelets from a platelet source to form a platelet rich portion of the platelet source; lysing the platelets in the platelet rich portion via a freeze-thaw cycle, wherein the freeze-thaw cycle is repeated at least once to form at least 30% lysates by platelet count from the platelet rich portion; and lyophilizing the lysates to form lyophilized platelet lysates in a composition which also includes released concentrations of available growth factors, cytokines, and chemokines.
A contrast agent for magnetic resonance imaging, the contrast agent comprising a compound of Formula (Ia), (Ib), (Ic) or (Id): or a pharmaceutically acceptable salt of the compound, wherein R 1 is selected from the group consisting of unsubstituted alkylene, unsubstituted cycloalkylene, unsubstituted heterocycloalkylene, unsubstituted arylene, unsubstituted heteroarylene, dialkylene arene, and dialkylene heteroarene, wherein R 2 is selected from the group consisting of hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, aryl, heteroaryl, halo, cyano, nitro, hydroxy, and alkoxy, wherein n is 2 or 3, and wherein the compound optionally includes a water coordinated to Mn when n is 2. wherein R 1 is selected from the group consisting of unsubstituted alkylene, unsubstituted cycloalkylene, unsubstituted heterocycloalkylene, unsubstituted arylene, unsubstituted heteroarylene, dialkylene arene, and dialkylene heteroarene, wherein R 2 is selected from the group consisting of hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, aryl, heteroaryl, halo, cyano, nitro, hydroxy, and alkoxy, wherein n is 2 or 3, and wherein the compound optionally includes a water coordinated to Mn when n is 2.
Coaxial connector for an electronic card having at least one main face (1.1) and a side (1.3) substantially perpendicular to the main face, the connector comprising a base fastened to a front panel of an electromagnetic shielding box and a pin passing through a first opening in the front panel so that the pin has a free end portion that projects into the box flush with a plane of a second opening defined by the bottom edge of a belt of the box, the box being arranged so that the bottom edge of the belt can bear against the main face of the electronic card while the front panel bears against the side of the electronic card, characterized in that the box has two internal rims extending along the front panel on either side of the free end portion of the pin so as to bear against said main face of the electronic card.
Glass tube for pharmaceutical containers, the glass tube having an inner surface and an outer surface, the glass tube having an inner diameter d i and an outer diameter d o , the glass tube having a wall thickness WT and a length l a , the glass tube having a longitudinal axis, wherein "hydrolytic resistance" is defined as the ratio of the alkali leachability on a section of the inner surface, determined as Na 2 O equivalents in an eluate prepared according to ISO 4802-2:2010, to the wall thickness, wherein a first hydrolytic resistance is determined at a first discrete section of the glass tube, and wherein a second hydrolytic resistance is determined at a second discrete section of the glass tube, wherein the absolute difference of the hydrolytic resistance determined at the first discrete section and the hydrolytic resistance determined at the second discrete section is less than 0.20 μg cm -2 mm -1 , less than 0.15 μg cm -2 mm -1 , or less than 0.10 μg cm -2 mm -1 , wherein the wall thickness is 0.4 mm to 2.5 mm, 0.6 mm to 2.3 mm, 0.8 mm to 2.1 mm, or 1.0 mm to 1.8 mm, wherein the outer diameter d o is 6 mm to 55 mm, 8 mm to 50 mm, 12 mm to 45 mm, 16 mm to 40 mm, or 20 mm to 35 mm, wherein the length is from 500 to 3500 mm, wherein the first discrete section and the second discrete section are annular cross-sectional portions of the tube each extending at least 60 mm on the inner surface along the longitudinal axis, wherein the glass tube comprises a glass composition comprising at least 2 mol% Na 2 O. wherein "hydrolytic resistance" is defined as the ratio of the alkali leachability on a section of the inner surface, determined as Na 2 O equivalents in an eluate prepared according to ISO 4802-2:2010, to the wall thickness, wherein a first hydrolytic resistance is determined at a first discrete section of the glass tube, and wherein a second hydrolytic resistance is determined at a second discrete section of the glass tube, wherein the absolute difference of the hydrolytic resistance determined at the first discrete section and the hydrolytic resistance determined at the second discrete section is less than 0.20 μg cm -2 mm -1 , less than 0.15 μg cm -2 mm -1 , or less than 0.10 μg cm -2 mm -1 , wherein the wall thickness is 0.4 mm to 2.5 mm, 0.6 mm to 2.3 mm, 0.8 mm to 2.1 mm, or 1.0 mm to 1.8 mm, wherein the outer diameter d o is 6 mm to 55 mm, 8 mm to 50 mm, 12 mm to 45 mm, 16 mm to 40 mm, or 20 mm to 35 mm, wherein the length is from 500 to 3500 mm, wherein the first discrete section and the second discrete section are annular cross-sectional portions of the tube each extending at least 60 mm on the inner surface along the longitudinal axis, wherein the glass tube comprises a glass composition comprising at least 2 mol% Na 2 O.
A method for the operation of a state monitoring system of a vibrating machine in the form of a vibrating conveyor or a vibrating screen, wherein the state monitoring system comprises at least one sensor designed for movement detection and / or acceleration detection, which is attached to the vibrating machine , wherein a) the sensor supplies measuring data, which is further processed in a computing unit connected to the sensor to form characteristic values, wherein b) the characteristic values are stored in the form of a data record or a plurality of data records, c) a knowledge base for an expert system is generated, taking into account the information supplied by the data records and / or on the basis of theoretical models, d) the data records are evaluated, with use of the expert system , in the computing unit of said or other vibrating machines , wherein e) a diagnosis and / or prognosis of an anomaly in the state of the vibrating machine, a recommendation for a servicing measure or an indication of an instant of failure of the vibrating machine is drawn up and / or issued by the computing unit , wherein a) the sensor supplies measuring data, which is further processed in a computing unit connected to the sensor to form characteristic values, wherein b) the characteristic values are stored in the form of a data record or a plurality of data records, c) a knowledge base for an expert system is generated, taking into account the information supplied by the data records and / or on the basis of theoretical models, d) the data records are evaluated, with use of the expert system , in the computing unit of said or other vibrating machines ,
A bonding wire for a semiconductor device comprising: a core material having Cu as a main component and a metallic element of the group consisting of Ni, Pd and Pt in a total amount of 0.1 % by mass or more and 3.0% by mass or less; wherein it optionally further contains Au, and the total amount of Ni, Pd, Pt and Au in the core material is more than 0.1% by mass and 3.0% by mass or less; a coating layer having Pd as a main component, elements other than Pd contained therein are inevitable impurities of Pd, a component constituting the core material inside the coating layer and an element constituting a skin alloy layer on a surface side of the coating layer, having a thickness of 20 to 90 nm and Pd maximum concentration with at least 90 at% provided on a surface of the core material; and a skin alloy layer containing Au and Pd having a thickness of 0.5 to 40 nm and having a maximum concentration of Au of 15 to 75 at% provided on a surface of the coating layer, wherein a concentration of Cu at an outermost surface of the wire is 1 at% or more and 10 at% or less, wherein the bonding wire optionally further contains one or more of P, B, Be, Fe, Mg, Ti, Zn, Ag and Si, and the total concentration of these elements in the entire wire is in a range of 0.0001 to 0.01% by mass, the balance being Cu and inevitable impurities; wherein the coating layers are measured as defined in the description. a core material having Cu as a main component and a metallic element of the group consisting of Ni, Pd and Pt in a total amount of 0.1 % by mass or more and 3.0% by mass or less; wherein it optionally further contains Au, and the total amount of Ni, Pd, Pt and Au in the core material is more than 0.1% by mass and 3.0% by mass or less; a coating layer having Pd as a main component, elements other than Pd contained therein are inevitable impurities of Pd, a component constituting the core material inside the coating layer and an element constituting a skin alloy layer on a surface side of the coating layer, having a thickness of 20 to 90 nm and Pd maximum concentration with at least 90 at% provided on a surface of the core material; and a skin alloy layer containing Au and Pd having a thickness of 0.5 to 40 nm and having a maximum concentration of Au of 15 to 75 at% provided on a surface of the coating layer, wherein a concentration of Cu at an outermost surface of the wire is 1 at% or more and 10 at% or less, wherein the bonding wire optionally further contains one or more of P, B, Be, Fe, Mg, Ti, Zn, Ag and Si, and the total concentration of these elements in the entire wire is in a range of 0.0001 to 0.01% by mass, the balance being Cu and inevitable impurities; wherein the coating layers are measured as defined in the description.
A computer implemented method to secure against unauthorized access to resources during application sessions, comprising: monitoring durations of a plurality of application sessions corresponding to a first application of a first host device to generate session duration data; determining a first plurality of security time limits associated with the first application based on the session duration data for the plurality of application sessions; detecting a first application session established between a first client and the first application of the first host device, the first application associated with the first plurality of security time limits that divide security for the first application into security tiers; monitoring a duration of the first application session established between the first client and the first application; executing one or more first security actions against the first application session responsive to the duration of the first application session reaching a security time limit of the first plurality of security time limits; and executing one or more second security actions against the first application session responsive to the duration of the first application session reaching another security time limit of the first plurality of security time limits, wherein one of the first security actions or the second security actions comprise isolating the first application session from other application sessions associated with the first host device, and wherein isolating the first application session comprises moving the first application session to a second host device. monitoring durations of a plurality of application sessions corresponding to a first application of a first host device to generate session duration data; determining a first plurality of security time limits associated with the first application based on the session duration data for the plurality of application sessions; detecting a first application session established between a first client and the first application of the first host device, the first application associated with the first plurality of security time limits that divide security for the first application into security tiers; monitoring a duration of the first application session established between the first client and the first application; executing one or more first security actions against the first application session responsive to the duration of the first application session reaching a security time limit of the first plurality of security time limits; and executing one or more second security actions against the first application session responsive to the duration of the first application session reaching another security time limit of the first plurality of security time limits, wherein one of the first security actions or the second security actions comprise isolating the first application session from other application sessions associated with the first host device, and wherein isolating the first application session comprises moving the first application session to a second host device.
A method comprising: establishing, at a mobile unit, a first connection with a primary network slice of a mobile communication network, the primary network slice providing service for one or more usage classes; establishing, at the mobile unit, a second connection with a secondary network slice of the mobile communication network while maintaining the first connection, the secondary network slice providing service for one or more additional usage classes; detecting a mobility management event for the mobile unit; and transmitting a single mobility management request to the primary network slice via the first connection in response to the mobility management event; and receiving a consolidated mobility management response via the first connection, wherein the consolidated mobility management response includes a first response from the primary network slice that indicates whether the primary network slice accepts the mobility management request and a second response from the secondary network slice that indicates whether the secondary network slice accepts the mobility management request. establishing, at a mobile unit, a first connection with a primary network slice of a mobile communication network, the primary network slice providing service for one or more usage classes; establishing, at the mobile unit, a second connection with a secondary network slice of the mobile communication network while maintaining the first connection, the secondary network slice providing service for one or more additional usage classes; detecting a mobility management event for the mobile unit; and transmitting a single mobility management request to the primary network slice via the first connection in response to the mobility management event; and receiving a consolidated mobility management response via the first connection, wherein the consolidated mobility management response includes a first response from the primary network slice that indicates whether the primary network slice accepts the mobility management request and a second response from the secondary network slice that indicates whether the secondary network slice accepts the mobility management request.
Method for detecting a DC fault current in an electrical AC circuit, wherein a rectifier unit is connected to an AC grid at a primary side and provides a DC current at a secondary side , and wherein the AC grid is secured by a fault current protection switch that interrupts the circuit when an AC fault current greater than a predefined AC trip threshold occurs, comprising the steps of: a) measuring an DC fault current at the primary side , b) comparing the DC fault current with a predefined DC trip threshold, and c) generating an AC fault current when the DC fault current is above the trip threshold, wherein the current strength of the AC fault current is selected such that it is above the AC trip threshold of the fault current protection switch and that the AC fault current is generated by connecting in a resistor at the primary side , characterized in that the DC current is used as charging current for charging an energy store and an AC fault current is generated even if the energy store is fully charged. a) measuring an DC fault current at the primary side , b) comparing the DC fault current with a predefined DC trip threshold, and c) generating an AC fault current when the DC fault current is above the trip threshold, wherein the current strength of the AC fault current is selected such that it is above the AC trip threshold of the fault current protection switch and that the AC fault current is generated by connecting in a resistor at the primary side ,
Receiver arrangement for receiving light pulses with: - at least one light-sensitive receiver (SPAD) which converts the light pulses into an electrical signal. - an evaluation circuit connected to the receiver, which determines a distance between the receiver arrangement and the at least one object (OB) that reflects the light pulses from the electrical signal by means of time-correlated photon counting with at least one histogram over a flight time of the light pulses and depending on a start signal for the light pulses, wherein the evaluation circuit is configured such that the evaluation circuit performs a reduction in the resolution of the distance determination from at least a predetermined distance, characterized in that the evaluation circuit has a controller (ST) which reduces a cycle rate for determining the distance from the electrical signal for predetermined time segments, wherein the evaluation circuit has at least one time-to-digital converter for the time-correlated photon counting, wherein the controller (ST) reduces the cycle rate of the at least one time-to-digital converter (TDC), and wherein the evaluation circuit stores 100 to 150, preferably 130 measurements per light pulse in the histogram. - at least one light-sensitive receiver (SPAD) which converts the light pulses into an electrical signal. - an evaluation circuit connected to the receiver, which determines a distance between the receiver arrangement and the at least one object (OB) that reflects the light pulses from the electrical signal by means of time-correlated photon counting with at least one histogram over a flight time of the light pulses and depending on a start signal for the light pulses, wherein the evaluation circuit is configured such that the evaluation circuit performs a reduction in the resolution of the distance determination from at least a predetermined distance, the evaluation circuit has a controller (ST) which reduces a cycle rate for determining the distance from the electrical signal for predetermined time segments, wherein the evaluation circuit has at least one time-to-digital converter for the time-correlated photon counting, wherein the controller (ST) reduces the cycle rate of the at least one time-to-digital converter (TDC), and wherein the evaluation circuit stores 100 to 150, preferably 130 measurements per light pulse in the histogram.
A refrigeration cycle apparatus comprising: a heat exchanger , wherein a refrigerant mixture is inclusive of HFO1123, R32, and HFO1234yf the apparatus being characterized in that a flat tube is configured to allow the refrigerant mixture to flow therethrough as a heat medium, the flat tube has a plurality of flow paths for the heat medium, and each of the plurality of flow paths has a rectangular shape in cross section, the rectangular shape is defined by a pair of longitudinal line segments opposed to each other, a pair of lateral line segments opposed to each other, and a set of four rounded corners , each of the rounded corners is a segment of a circumference of a circle, the pair of longitudinal line segments intersects with the pair of lateral line segments at the rounded corners , the rectangular shape is configured to satisfy 0.005 ≤ r/d ≤ 0.8 where r is a radius of the circle, and d is a distance between the pair of longitudinal line segments opposed to each other; a mixture ratio of HFO1234yf in the refrigerant mixture ranges from 50% to 90% by weight. a heat exchanger , wherein a refrigerant mixture is inclusive of HFO1123, R32, and HFO1234yf the apparatus being characterized in that a flat tube is configured to allow the refrigerant mixture to flow therethrough as a heat medium, the flat tube has a plurality of flow paths for the heat medium, and each of the plurality of flow paths has a rectangular shape in cross section, the rectangular shape is defined by a pair of longitudinal line segments opposed to each other, a pair of lateral line segments opposed to each other, and a set of four rounded corners , each of the rounded corners is a segment of a circumference of a circle, the pair of longitudinal line segments intersects with the pair of lateral line segments at the rounded corners , the rectangular shape is configured to satisfy 0.005 ≤ r/d ≤ 0.8 where r is a radius of the circle, and d is a distance between the pair of longitudinal line segments opposed to each other; a mixture ratio of HFO1234yf in the refrigerant mixture ranges from 50% to 90% by weight.
Method for evaluating acoustic properties of a fluid , wherein an opposing body is moved in relation to a main body while the fluid is between the opposing body and the main body ; and during the movement a friction force (RK) and/or a friction coefficient (RW) between the opposing body and the main body is recorded in dependence on a positioning (P) of the opposing body in relation to the main body ; characterized in that a friction force fluctuation (RKS) is determined from the friction force (RK) and/or a friction coefficient fluctuation (RWS) is determined from the friction coefficient (RW); and a mean fluctuation value (SM) is calculated from the friction force fluctuation (RKS) and/or from the friction coefficient fluctuation (RWS).
A system configured to measure diffractive intraocular lenses comprising: one or more light sources configured to emit a plurality of wavelengths of light for diffraction by a diffractive intraocular lens ; a wavefront sensor configured to receive the light that is diffracted by the diffractive intraocular lens ; and a processor configured to determine one or more of the plurality of wavelengths that have a peak diffraction efficiency for the diffractive intraocular lens based on the light received by the wavefront sensor . one or more light sources configured to emit a plurality of wavelengths of light for diffraction by a diffractive intraocular lens ; a wavefront sensor configured to receive the light that is diffracted by the diffractive intraocular lens ; and a processor configured to determine one or more of the plurality of wavelengths that have a peak diffraction efficiency for the diffractive intraocular lens based on the light received by the wavefront sensor .