mhurhangee/ep-ind-claims huggingface dataset:
A mechanical support of a pelvic treatment apparatus that is configured for implantation in the pelvic region of a patient, the mechanical support comprising: a section of mesh having a longitudinal axis; at least one radiopaque mark covering a subsection of the section of mesh; one or more electrodes attached to the section of mesh; one or more electrical conductors attached to the one or more electrodes and the mesh; and an electrical connector attached to the mesh and electrically coupled to the one or more electrodes through the one or more conductors, the electrical connector configured to electrically couple to a distal end of an electrical lead; characterized in that: the electrical connector overlays the section of mesh; and the at least one radiopaque mark includes a radiopaque mark that underlays the electrical connector and indicates the location of the electrical connector on the section of mesh. a section of mesh having a longitudinal axis; at least one radiopaque mark covering a subsection of the section of mesh; one or more electrodes attached to the section of mesh; one or more electrical conductors attached to the one or more electrodes and the mesh; and an electrical connector attached to the mesh and electrically coupled to the one or more electrodes through the one or more conductors, the electrical connector configured to electrically couple to a distal end of an electrical lead; characterized in that: the electrical connector overlays the section of mesh; and the at least one radiopaque mark includes a radiopaque mark that underlays the electrical connector and indicates the location of the electrical connector on the section of mesh. the electrical connector overlays the section of mesh; and the at least one radiopaque mark includes a radiopaque mark that underlays the electrical connector and indicates the location of the electrical connector on the section of mesh.
An embolization material which contains a synthetic polymer, has a water swelling ratio of 30% or more, is degradable in a phosphate buffered saline at 37°C, and is formed as virtually spherical particles with an average particle size of 50 μm or more, wherein the synthetic polymer is a water insoluble poly(ethylene glycol) copolymer having a structure in which a poly(ethylene glycol) derivative which is selected from poly (ethylene glycol), methoxy poly (ethylene glycol) and multi-branched poly (ethylene glycol) and a biodegradable polymer are chemically bonded to each other, and is capable of forming a film which, when saturated with water, has an elastic modulus in tension of 1500 MPa or less, and wherein the water insoluble poly(ethylene glycol) copolymer has a weight average molecular weight of 3000 to 100000, and the structure of the poly(ethylene glycol) derivative existing in the poly(ethylene glycol) copolymer has a weight average molecular weight of 2000 to 50000.
A lawn mower robot, comprising: an outer cover; an inner body accommodated into the outer cover to mount a plurality of wheels for traveling on both sides thereof; a plurality of blades rotatably mounted on a bottom surface of the inner body to mow the grass; a plurality of support portions arranged to be spaced apart in front-rear and left-right directions on an upper portion of the inner body to movably support the outer cover in front-rear and left-right directions with respect to the inner body; and a plurality of injury preventing walls provided on a bottom surface of the inner body to prevent a user's hand from entering toward the plurality of blades from a lower portion of the outer cover, wherein the plurality of injury preventing walls comprises: a first injury preventing wall (131, 231, 331) protruded downward from a bottom front side of the inner body; and a plurality of second injury preventing walls (132, 432) protruded downward from both bottom left and right sides of the inner body, respectively, further comprising: a charging terminal assembly mounted on a front inner side of the inner body to have a plurality of charging terminals, wherein the first injury preventing wall (131, 231, 331) is disposed at a lower portion of the charging terminal assembly. an outer cover; an inner body accommodated into the outer cover to mount a plurality of wheels for traveling on both sides thereof; a plurality of blades rotatably mounted on a bottom surface of the inner body to mow the grass; a plurality of support portions arranged to be spaced apart in front-rear and left-right directions on an upper portion of the inner body to movably support the outer cover in front-rear and left-right directions with respect to the inner body; and a plurality of injury preventing walls provided on a bottom surface of the inner body to prevent a user's hand from entering toward the plurality of blades from a lower portion of the outer cover, a first injury preventing wall (131, 231, 331) protruded downward from a bottom front side of the inner body; and a plurality of second injury preventing walls (132, 432) protruded downward from both bottom left and right sides of the inner body, respectively, further comprising: a charging terminal assembly mounted on a front inner side of the inner body to have a plurality of charging terminals, wherein the first injury preventing wall (131, 231, 331) is disposed at a lower portion of the charging terminal assembly. a charging terminal assembly mounted on a front inner side of the inner body to have a plurality of charging terminals, wherein the first injury preventing wall (131, 231, 331) is disposed at a lower portion of the charging terminal assembly.
A mobile terminal comprising: a power supply unit including a solar battery; a transparent display on the solar battery; a user input unit to receive a charge command signal relating to the solar battery; and characterized in that a controller is configured to set a first region of the transparent display to an opaque region and to set a second region of the transparent display to a transparent region when the charge command signal is received, and to control the transparent display to perform an information display operation on the opaque region and to perform a solar light receiving operation on the transparent region for charging using the solar battery, wherein the controller is configured to control the solar battery to charge power based on solar light received at the transparent region of the transparent display, and wherein the transparent display is configured to display a first screen on the opaque region by reducing or scrolling it under the control of the controller when the charge command signal is received while displaying the first screen using the transparent display. a power supply unit including a solar battery; a transparent display on the solar battery; a user input unit to receive a charge command signal relating to the solar battery; and characterized in that a controller is configured to set a first region of the transparent display to an opaque region and to set a second region of the transparent display to a transparent region when the charge command signal is received, and to control the transparent display to perform an information display operation on the opaque region and to perform a solar light receiving operation on the transparent region for charging using the solar battery, wherein the controller is configured to control the solar battery to charge power based on solar light received at the transparent region of the transparent display, and wherein the transparent display is configured to display a first screen on the opaque region by reducing or scrolling it under the control of the controller when the charge command signal is received while displaying the first screen using the transparent display.
A dryer, comprising - an enclosure comprising a first and a second opening (16, 18); - a transporter for transporting one or more components through said enclosure between said first and said second opening; one or more heating elements in at least a portion of said enclosure proximate said first opening; - a first and a second duct (24, 26) within said enclosure, said first and said second duct (24, 26) each comprising a closed end (32, 34) and an inlet (28, 30); - a plurality of openings in each of said first and said second duct (24, 26), said plurality of openings configured for discharging air towards said one or more components; - a supply blower in fluid communication with said inlet of said first and said second duct (24, 26); - a first and a second heater (44, 46) for respectively heating air supplied by said supply blower to said first and said second duct (24, 26); and - an exhaust stack in fluid communication with an interior of said enclosure, said exhaust stack comprising an exhaust blower for extracting fluid from said enclosure. - an enclosure comprising a first and a second opening (16, 18); - a transporter for transporting one or more components through said enclosure between said first and said second opening; - a first and a second duct (24, 26) within said enclosure, said first and said second duct (24, 26) each comprising a closed end (32, 34) and an inlet (28, 30); - a plurality of openings in each of said first and said second duct (24, 26), said plurality of openings configured for discharging air towards said one or more components; - a supply blower in fluid communication with said inlet of said first and said second duct (24, 26); - a first and a second heater (44, 46) for respectively heating air supplied by said supply blower to said first and said second duct (24, 26); and - an exhaust stack in fluid communication with an interior of said enclosure, said exhaust stack comprising an exhaust blower for extracting fluid from said enclosure.
A method for multicasting or broadcasting a plurality of services, comprising: forming statistical multiplex groups around each of a plurality of groups of services; associating a group ID and group quality of service requirements with each of the statistical multiplex groups; providing a session start message corresponding to a service, the session start message comprising the group ID and group quality of service requirements associated with a statistical multiplex group formed around a group of services including the service corresponding to the session start message; and coordinating the services of the statistical multiplex group into a plurality of channels based on the session start message such that services in the statistical multiplex group are grouped for at least one of multicast and broadcast on a common transmission channel based on the group ID and the group quality of service requirements, associated with the statistical multiplex group. forming statistical multiplex groups around each of a plurality of groups of services; associating a group ID and group quality of service requirements with each of the statistical multiplex groups; providing a session start message corresponding to a service, the session start message comprising the group ID and group quality of service requirements associated with a statistical multiplex group formed around a group of services including the service corresponding to the session start message; and coordinating the services of the statistical multiplex group into a plurality of channels based on the session start message such that services in the statistical multiplex group are grouped for at least one of multicast and broadcast on a common transmission channel based on the group ID and the group quality of service requirements, associated with the statistical multiplex group.
Welding filler material, characterised by the following chemical composition (data in w.%): 0.05-0.15 C, 10 Cr, 3-4 Ni, 0.5 - 1.9 Mo, 0.5 - 1.5 Mn, 0.2 - 0.3 Si, 0.2 - 0.4 V, 0 - 0.04B, 1 - 3 Re, 0.001 - 0.07 Ta, 0.01 - 0.06 N, 0 - 60 ppm Pd, max. 0.25 P, max. 0.02 S, remainder Fe and impurities unavoidably caused in production. 0.05-0.15 C, 10 Cr, 3-4 Ni, 0.5 - 1.9 Mo, 0.5 - 1.5 Mn, 0.2 - 0.3 Si, 0.2 - 0.4 V, 0 - 0.04B, 1 - 3 Re, 0.001 - 0.07 Ta, 0.01 - 0.06 N, 0 - 60 ppm Pd, max. 0.25 P, max. 0.02 S, remainder Fe and impurities unavoidably caused in production.
Wheel bearing arrangement having a rotating and a stationary rotational partner (3, 4) and having two rolling body rows (5a, b), the rotational partners (3, 4) being mounted via the two rolling body rows (5a, b) such that they can be rotated with respect to one another about a rotational axis, having a grease distributor ring, the grease distributor ring being connected fixedly to the rotating rotational partner so as to rotate with it and having a first grease guiding face which is oriented such that, during the rotation of the rotating rotational partner, lubricating grease is guided onto one of the rolling body rows, the grease distributor ring having a second grease guiding face which is oriented such that, during the rotation of the rotating rotational partner, lubricating grease is guided to the other of the rolling body rows, characterized in that the two grease guiding faces (13a, b) have different curvatures, different axial extents and/or different radial extents in longitudinal section.
A method comprising: determining how timings of at least one of receiving and sending data over at least two aggregated component carriers of a time division duplex system in at least one sub-frame time period are related, wherein the determining comprises comparing the time division duplex configuration of the at least two aggregated component carriers; and setting the timings of the at least one of receiving and sending data for the at least two aggregated component carriers based on the determining. determining how timings of at least one of receiving and sending data over at least two aggregated component carriers of a time division duplex system in at least one sub-frame time period are related, wherein the determining comprises comparing the time division duplex configuration of the at least two aggregated component carriers; and setting the timings of the at least one of receiving and sending data for the at least two aggregated component carriers based on the determining.
A method for inducing differentiation of monocytes contained in an extracorporeal quantity of a mammalian subject's blood sample into immuno-suppressive dendritic cells, said method comprising at least the steps of: a) subjecting said extracorporeal quantity of said mammalian subject's blood sample to a physical force such that said monocytes are activated and induced to differentiate into immuno-suppressive dendritic cells, which are identified by at least one molecular marker, wherein said at least one molecular marker is indicative of immuno-suppressive dendritic cells; b) determining expression of GILZ to identify said immuno-suppressive dendritic cells;; and wherein said monocytes are exposed to UV light in the presence of a DNA-cross linking agent, preferably 8-MOP, to effect increased expression of GILZ, wherein said extracorporeal quantity of said mammalian subject's blood sample is subjected to a physical force by passing said extracorporeal quantity of said mammalian subject's blood sample through a flow chamber of a device, which allows for fixed or tunable adjustment of the flow rate of said extracorporeal quantity of said mammalian subject's blood sample through said flow chamber of said device such that a shear force is applied to said monocytes contained within said mammalian subject's blood sample and wherein said immuno-suppressive dendritic cells are resistant to full maturation by LPS stimulation. a) subjecting said extracorporeal quantity of said mammalian subject's blood sample to a physical force such that said monocytes are activated and induced to differentiate into immuno-suppressive dendritic cells, which are identified by at least one molecular marker, wherein said at least one molecular marker is indicative of immuno-suppressive dendritic cells; b) determining expression of GILZ to identify said immuno-suppressive dendritic cells;
A navigation system for a moving craft, comprising a first positioning module by processing inertial sensor measurements, a second GNSS positioning module comprising at least one multi-channel radiofrequency receiver, each channel being capable of acquiring and tracking at least one carrier received from a satellite, of measuring the phase thereof and of demodulating the signal thereof so as to recover at least one modulation code, and a module for computing navigation solutions by hybridising in at least one Kalman filter the results of the first module with those of the second module, said module for computing the navigation solution including in the hybridisation, for a given channel, at least one code pseudo-distance computation, at least one pathway increment measurement carried out on said channel by integrating measurements of the carrier phase tracked by said channel and at least one phase pseudo-distance computation, initialised with the code pseudo-distance and maintained by the pathway increment measurement, said system being characterised in that at least one of the variables of the state vector of at least one of the Kalman filters represents part of the errors on the code and phase measurements of said second positioning module due to the crossing of the ionospheric layers of the atmosphere, and in that the navigation solutions are computed on the basis of observations of the differences between the pseudo-distances computed on the basis of the outputs of said first positioning module and the code and phase pseudo-distances.
A refractory wear control assembly for installation in a refractory furnace, the assembly including: a refractory sensor for measuring the temperature of the refractory; a viscosity sensor for determining the viscosity of the melt in the furnace; melt temperature adjustment means responsive to the refractory sensor and the viscosity sensor, such that, the adjustment means adjusts the melt temperature to an optimum set point temperature determined from a predefined relationship between the refractory temperature and the melt viscosity, wherein the optimum set point temperature is a minimum temperature that will sustain a desired rate of tapping the melt from the furnace. a refractory sensor for measuring the temperature of the refractory; a viscosity sensor for determining the viscosity of the melt in the furnace; melt temperature adjustment means responsive to the refractory sensor and the viscosity sensor, such that, the adjustment means adjusts the melt temperature to an optimum set point temperature determined from a predefined relationship between the refractory temperature and the melt viscosity, wherein the optimum set point temperature is a minimum temperature that will sustain a desired rate of tapping the melt from the furnace.
A method, comprising: a) introducing an analyte mixture into a separation channel of a microfluidic device; b) applying an electric field across the separation channel to separate the analyte mixture into enriched analyte fractions via isoelectric focusing; c) imaging the separation of the analyte mixture and subsequent mobilization of the enriched analyte fractions within the separation channel via a transparent portion of the microfluidic device; characterized by d) introducing a sheath fluid electrolyte into the separated analyte mixture to mobilize and expel substantially all of the enriched analyte fractions via electrospray ionization into a mass spectrometer from a single orifice that is in line with the separation channel; and e) correlating an absorbance peak for a specific enriched analyte fraction detected by the imaging of the separation channel in (c) with mass spectrometer data for the specific enriched analyte fraction. a) introducing an analyte mixture into a separation channel of a microfluidic device; b) applying an electric field across the separation channel to separate the analyte mixture into enriched analyte fractions via isoelectric focusing; c) imaging the separation of the analyte mixture and subsequent mobilization of the enriched analyte fractions within the separation channel via a transparent portion of the microfluidic device; characterized by d) introducing a sheath fluid electrolyte into the separated analyte mixture to mobilize and expel substantially all of the enriched analyte fractions via electrospray ionization into a mass spectrometer from a single orifice that is in line with the separation channel; and e) correlating an absorbance peak for a specific enriched analyte fraction detected by the imaging of the separation channel in (c) with mass spectrometer data for the specific enriched analyte fraction.
Whey protein micelles for use in the treatment and/or prevention of a condition linked to a reduced concentration of plasma amino acids in a patient in need thereof, wherein the treatment or prevention does not include an additional exercise regimen, wherein the condition is muscle atrophy or sarcopenia and wherein the whey protein micelles are administered to the patient in combination with a meal, wherein the meal comprises whey protein isolates, hydrolyzed milk proteins or any combination thereof; and wherein the whey protein micelles are administered to the patient in a daily dose of at least 20 g dry weight.
A valve arrangement for regulating a fluid flow with a valve housing (2; 82) having an inlet (16; 96) for the fluid flow and a first and a second outlet, characterised in that a first outer ring channel (21; 101) is assigned to the first outlet of the valve housing (2; 82), separated from a second outer ring channel (22; 102) which is assigned to the second outlet of the valve housing (2; 82) by a separating ring body (20; 100) of the valve housing (2; 82), wherein the first outlet comprises at least one first valve housing window (28, 29; 108, 109) which opens into the first ring channel (21; 101) and wherein a first row of valve housing windows (28, 29; 108, 109) which open into the first ring channel (21; 101) is assigned to the first ring channel (21; 101), wherein the valve housing windows (28, 29; 108, 109) of the first row are separated from each other by separating webs (24, 25; 104, 105) and wherein the separating webs (24, 25; 104, 105) of the first row of valve housing windows (28, 29; 108, 109) are integrally connected to a terminating body (17; 98) of the valve housing (2; 82), wherein the second outlet comprises at least one second valve housing window (38, 39; 118, 119) which opens into the second ring channel (22; 102), wherein a second row of valve housing windows (38, 39; 118, 119) which open into the second ring channel (22; 102) is assigned to the second ring channel (22; 102), wherein the valve housing windows (38, 39; 118, 119) of the second row are separated from each other by separating webs (34, 35; 114, 115) and wherein the separating webs (34, 35; 114, 115) of the second row of valve housing windows (38, 39; 118, 119) are integrally connected to a head (4; 84) of the valve housing (2; 82).