mhurhangee/patent-ind-claim-en huggingface dataset:
A ballistic dolly system comprising: a frame assembly of a ballistic dolly having an elongated member ; a seat assembly mounted to the elongated member , the seat assembly having one or more surfaces adapted to engage an inner surface of a body of an overlap panel ; one or more seat channels formed in the seat assembly , each of the one or more seat channels adapted to releasably engage an edge of a body of an armor panel , each of the one or more seat channels orienting the edge of the body of the armor panel in an overlapping relationship with the body of the overlap panel such that a portion of the body of the armor panel overlaps with a portion of the body of the overlap panel , the overlapping relationship covering a ballistic void of the ballistic dolly ; and at least one attachment assembly disposed along the frame assembly ; characterized in that the at least one attachment assembly has an attachment channel adapted to releasably engage a bar mounted on an inner surface of the body of the armor panel . a frame assembly of a ballistic dolly having an elongated member ; a seat assembly mounted to the elongated member , the seat assembly having one or more surfaces adapted to engage an inner surface of a body of an overlap panel ; one or more seat channels formed in the seat assembly , each of the one or more seat channels adapted to releasably engage an edge of a body of an armor panel , each of the one or more seat channels orienting the edge of the body of the armor panel in an overlapping relationship with the body of the overlap panel such that a portion of the body of the armor panel overlaps with a portion of the body of the overlap panel , the overlapping relationship covering a ballistic void of the ballistic dolly ; and at least one attachment assembly disposed along the frame assembly ; characterized in that the at least one attachment assembly has an attachment channel adapted to releasably engage a bar mounted on an inner surface of the body of the armor panel .
A method for configuring beamformed wireless communication between a base station and a user equipment , the method comprising: transmitting , by the base station and using multiple transmit antenna configurations, downlink reference signals to the user equipment; configuring , by the base station, time-frequency resources for Non-Orthogonal Multiple Access, NOMA, transmissions for the user equipment; configuring an association between the downlink reference signals and the time-frequency resources for the user equipment; transmitting , to the user equipment, the configuration of the time-frequency resources for the NOMA transmissions and the association between the downlink reference signals and the time-frequency resources; and receiving uplink data from the user equipment on one of the time-frequency resources using a receive antenna configuration, the receive antenna configuration being determined at least in part using one of the multiple transmit antenna configurations used for transmitting one of the downlink reference signals associated with one of the time-frequency resources as indicated in the association. transmitting , by the base station and using multiple transmit antenna configurations, downlink reference signals to the user equipment; configuring , by the base station, time-frequency resources for Non-Orthogonal Multiple Access, NOMA, transmissions for the user equipment; configuring an association between the downlink reference signals and the time-frequency resources for the user equipment; transmitting , to the user equipment, the configuration of the time-frequency resources for the NOMA transmissions and the association between the downlink reference signals and the time-frequency resources; and receiving uplink data from the user equipment on one of the time-frequency resources using a receive antenna configuration, the receive antenna configuration being determined at least in part using one of the multiple transmit antenna configurations used for transmitting one of the downlink reference signals associated with one of the time-frequency resources as indicated in the association.
An expandable implant comprising: - a first endplate ; - a second endplate opposed to the first endplate : - a central ramp positioned between the first endplate and the second endplate , the central ramp including a first ramp in contact with the first endplate and a second ramp in contact with the second endplate ; and - a driving ramp positioned between the first endplate and the second endplate , wherein the driving ramp is operably connected with the central ramp characterized in that , - the driving ramp includes a bore and a graft delivery hole , - a rear portion of the central ramp includes a bore and a graft delivery hole , and - wherein the graft delivery hole of the central ramp is aligned with the graft delivery hole of the driving ramp . - a first endplate ; - a second endplate opposed to the first endplate : - a central ramp positioned between the first endplate and the second endplate , the central ramp including a first ramp in contact with the first endplate and a second ramp in contact with the second endplate ; and - a driving ramp positioned between the first endplate and the second endplate , wherein the driving ramp is operably connected with the central ramp characterized in that , - the driving ramp includes a bore and a graft delivery hole , - a rear portion of the central ramp includes a bore and a graft delivery hole , and - wherein the graft delivery hole of the central ramp is aligned with the graft delivery hole of the driving ramp .
An insertion kit for an endosseous single-tooth implant for a fixed tooth replacement, with a substantially cylindrical main body , which can be inserted into a bore introduced into a jaw bone, with an annular recess with a positive-locking section and with a bore arranged coaxially relative to the annular recess , and which comprises apically a threading for the securing of a retaining screw; a screw-in base , which can be inserted into the annular recess of the main body , with a positive-locking section , wherein the screw-in base comprises a bore , which penetrates through the screw-in base coaxially relative to the annular recess , for receiving a retaining screw ; a retaining screw with an apical outer threading and a coronal screw head , wherein the retaining screw can be inserted in the bore of the screw-in base and screwed into the threading of the main body ; a screw-in head , which can be engaged with the screw-in base , and which comprises a bore arranged coaxially relative to the annular recess and a projection at the coronal end thereof, preferably in the form of an outer polygon , for a screw-in tool, and a retaining shaft , which can be inserted in the bore of the screw-in head and which, at one end, can be fixed to the retaining screw and, at the other end, comprises a projection for a dental angle piece, wherein the positive-locking section of the main body and the positive-locking section of the screw-in base comprise mutually complementary screw-in elements (30; 48) which, during the insertion of the screw-in base in the main body , are made to engage with one another, and wherein the screw-in base and the main body , in the engagement position of the mutually complementary screw-in elements, are secured in a rotationally fixed manner with respect to one another, wherein the mutually complementary screw-in elements on main body and screw-in base are designed as respective shape-complementary screw-in element pairs selected from inner edge-outer edge, pins-recesses and Morse taper-Morse cone pairs, wherein the annular recess of the main body includes an apical guide section , the positive-locking section arranged coronally relative to the apical guide section , and a coronal end section arranged coronally relative to the positive-locking section , and wherein the screw-in base /the screw-in body includes an apical guide section (44/100), a positive-locking section (46/102) and a coronal end section (52/104), which correspond to the corresponding sections of the main body.
A hose structure with adjustable water outlet temperature, comprising a hose body and a water outlet joint assembly arranged at one end of the hose body and configured for connecting a water outlet device, wherein the hose body is provided with through first and second channels , wherein the first channel is configured for receiving cold water, the second channel is annular and surrounds the first channel and is configured for receiving hot water, wherein the hose body comprises an outer hose and an inner hose sleeved in the outer hose , wherein the first channel is formed in the inner hose , and a gap between the outer hose and the inner hose forms the second channel , wherein the water outlet joint assembly comprises a water outlet joint and a water outlet horn-shaped joint which are connected to each other, wherein the water outlet joint is connected with the inner hose and the outer hose , and the water outlet joint is provided with a cold water through hole and a hot water through hole which are respectively matched with the first channel and the second channel to allow cold water and hot water to pass through, wherein the hot water through hole is provided with partition ribs at a water outlet end thereof to form a plurality of spaced water outlets , wherein the water outlet horn-shaped joint is sleeved outside the water outlet joint , characterized in that a temperature adjusting mechanism is provided in the water outlet joint assembly and configured for adjusting the flow rate of hot water flowing out of the hose structure, wherein the temperature adjusting mechanism is arranged in the water outlet horn-shaped joint and positioned at the side of the water outlet joint facing away from the hose body . wherein the hose body comprises an outer hose and an inner hose sleeved in the outer hose , wherein the first channel is formed in the inner hose , and a gap between the outer hose and the inner hose forms the second channel , wherein the water outlet joint assembly comprises a water outlet joint and a water outlet horn-shaped joint which are connected to each other, wherein the water outlet joint is connected with the inner hose and the outer hose , and the water outlet joint is provided with a cold water through hole and a hot water through hole which are respectively matched with the first channel and the second channel to allow cold water and hot water to pass through, wherein the hot water through hole is provided with partition ribs at a water outlet end thereof to form a plurality of spaced water outlets , wherein the water outlet horn-shaped joint is sleeved outside the water outlet joint , characterized in that a temperature adjusting mechanism is provided in the water outlet joint assembly and configured for adjusting the flow rate of hot water flowing out of the hose structure, wherein the temperature adjusting mechanism is arranged in the water outlet horn-shaped joint and positioned at the side of the water outlet joint facing away from the hose body .
An assembly comprising a reusable launch vehicle and a landing apparatus, the landing apparatus comprising: a landing leg pivotably mounted at one end to the reusable launch vehicle; a cover mounted to an outside of the landing leg along a longitudinal direction of the landing leg ; and a leg landing plate mounted to a distal end of the landing leg ; characterised in that the landing leg is selectively detachably mounted at the other end to the reusable launch vehicle; and in that the leg landing plate is relatively pivotable with respect to the landing leg by its own weight when the other end of the landing leg is separated from the reusable launch vehicle. a landing leg pivotably mounted at one end to the reusable launch vehicle; a cover mounted to an outside of the landing leg along a longitudinal direction of the landing leg ; and a leg landing plate mounted to a distal end of the landing leg ; characterised in that the landing leg is selectively detachably mounted at the other end to the reusable launch vehicle; and in that the leg landing plate is relatively pivotable with respect to the landing leg by its own weight when the other end of the landing leg is separated from the reusable launch vehicle.
A system comprising: an electrocardiogram, ECG, sensor; an accelerometer; a photoplethysmograph, PPG; a temperature sensor and/or a galvanic skin response, GSR, sensor; one or more processors; and a memory comprising instructions adapted to configure the one or more processors to detect sleep-disordered breathing, SDB, events of a patient, wherein by the instructions, the one or more processors are configured to: control an analysis of ECG data of the patient from a signal generated by the ECG sensor, pulse oximetry data of the patient from a signal generated by the PPG, and three-dimensional accelerometry data of the patient from a signal generated by the accelerometer; and detect the SDB events based on the analysis, wherein the analysis estimates a sleep stage of the patient from the ECG data and characterized in that to estimate the sleep stage, the analysis evaluates temperature data from a signal generated by the temperature sensor, the temperature data representing temperature of skin of the patient; and/or to estimate the sleep stage, the analysis evaluates sympathetic activity data of the patient from a signal generated by the GSR sensor. an electrocardiogram, ECG, sensor; an accelerometer; a photoplethysmograph, PPG; a temperature sensor and/or a galvanic skin response, GSR, sensor; one or more processors; and a memory comprising instructions adapted to configure the one or more processors to detect sleep-disordered breathing, SDB, events of a patient, wherein by the instructions, the one or more processors are configured to: control an analysis of ECG data of the patient from a signal generated by the ECG sensor, pulse oximetry data of the patient from a signal generated by the PPG, and three-dimensional accelerometry data of the patient from a signal generated by the accelerometer; and detect the SDB events based on the analysis, control an analysis of ECG data of the patient from a signal generated by the ECG sensor, pulse oximetry data of the patient from a signal generated by the PPG, and three-dimensional accelerometry data of the patient from a signal generated by the accelerometer; and detect the SDB events based on the analysis, wherein the analysis estimates a sleep stage of the patient from the ECG data and characterized in that to estimate the sleep stage, the analysis evaluates temperature data from a signal generated by the temperature sensor, the temperature data representing temperature of skin of the patient; and/or to estimate the sleep stage, the analysis evaluates sympathetic activity data of the patient from a signal generated by the GSR sensor. to estimate the sleep stage, the analysis evaluates temperature data from a signal generated by the temperature sensor, the temperature data representing temperature of skin of the patient; and/or to estimate the sleep stage, the analysis evaluates sympathetic activity data of the patient from a signal generated by the GSR sensor.
A pharmaceutical composition, comprising: an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein the first uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 65:35 to 90:10, a weight average molecular weight of 50,000-145,000; the second uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 50:50 to 75:25, a weight average molecular weight of 4,000-45,000; and wherein a weight content of the active component in the pharmaceutical composition is within a range from 10% to 60%, preferably from 35% to 55%, more preferably from 40% to 50%; a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%, preferably from 45% to 65%, more preferably from 50% to 60%; and the pharmaceutical composition is present in the form of microspheres. an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein the first uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 65:35 to 90:10, a weight average molecular weight of 50,000-145,000; the second uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 50:50 to 75:25, a weight average molecular weight of 4,000-45,000; and wherein a weight content of the active component in the pharmaceutical composition is within a range from 10% to 60%, preferably from 35% to 55%, more preferably from 40% to 50%; a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%, preferably from 45% to 65%, more preferably from 50% to 60%; and the pharmaceutical composition is present in the form of microspheres.
A method of estimating one or more properties of an earth formation , the method comprising: performing a measurement of fluid from a borehole , and acquiring formation fluid data based on the measurement, the formation fluid data indicative of a qualitative property of a formation fluid in a near-field region of an earth formation surrounding the borehole , the near-field region including a surface of the borehole ; acquiring acoustic data based on acoustic signals transmitted into a far-field region of the formation, and estimating a property of one or more fractures in the far-field region based on the acoustic data; combining the formation fluid data and the acoustic data; and estimating, by a processing device, at least one fracture property of the formation in the near-field region and the far-field region based on the combined data, wherein the at least one fracture property includes a connectivity between the one or more fractures in the far-field region and the borehole . performing a measurement of fluid from a borehole , and acquiring formation fluid data based on the measurement, the formation fluid data indicative of a qualitative property of a formation fluid in a near-field region of an earth formation surrounding the borehole , the near-field region including a surface of the borehole ; acquiring acoustic data based on acoustic signals transmitted into a far-field region of the formation, and estimating a property of one or more fractures in the far-field region based on the acoustic data; combining the formation fluid data and the acoustic data; and estimating, by a processing device, at least one fracture property of the formation in the near-field region and the far-field region based on the combined data, wherein the at least one fracture property includes a connectivity between the one or more fractures in the far-field region and the borehole .
An ecofriendly snow removal composition comprising: a chloride, which is a compound that releases chloride ions upon contact with water, a starfish-derived porous structure comprising calcium carbonate and being obtained by removing proteins from starfish, and sodium hexametaphosphate, wherein the sodium hexametaphosphate is contained in an amount of 0.5 to 3 wt.% with respect to the total weight of the composition. a chloride, which is a compound that releases chloride ions upon contact with water, a starfish-derived porous structure comprising calcium carbonate and being obtained by removing proteins from starfish, and sodium hexametaphosphate, wherein the sodium hexametaphosphate is contained in an amount of 0.5 to 3 wt.% with respect to the total weight of the composition.
A shampoo composition comprising: a) from about 5 % to about 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed solid crystalline gel network phase comprising: i) from 1 % to 8 % of one or more fatty amphiphiles, by weight of said shampoo composition, wherein said fatty amphiphile, or a mixture of two or more of said fatty amphiphiles, has a melting point of at least 27 °C; ii) at least about 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and c) at least about 20 % of an aqueous carrier, by weight of said shampoo composition; wherein said dispersed solid crystalline gel network phase is pre-formed; and wherein the fatty amphiphiles are selected from the group consisting of fatty amides, fatty alkanolamides, fatty alkoxylated amides, and mixtures thereof. a) from about 5 % to about 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed solid crystalline gel network phase comprising: i) from 1 % to 8 % of one or more fatty amphiphiles, by weight of said shampoo composition, wherein said fatty amphiphile, or a mixture of two or more of said fatty amphiphiles, has a melting point of at least 27 °C; ii) at least about 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and i) from 1 % to 8 % of one or more fatty amphiphiles, by weight of said shampoo composition, wherein said fatty amphiphile, or a mixture of two or more of said fatty amphiphiles, has a melting point of at least 27 °C; ii) at least about 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and c) at least about 20 % of an aqueous carrier, by weight of said shampoo composition; wherein said dispersed solid crystalline gel network phase is pre-formed; and wherein the fatty amphiphiles are selected from the group consisting of fatty amides, fatty alkanolamides, fatty alkoxylated amides, and mixtures thereof.