mhurhangee/ep-ind-claims huggingface dataset:
A method for packing a facilitated transport membrane selectively allowing a specific gas such as carbon dioxide or gasified carbonic acid (CO 2), a sulfur oxide (SO x), a nitrogen oxide (NO x), and hydrogen sulfide (H 2 S) to permeate therethrough, the method comprising the steps of: putting the facilitated transport membrane in a packaging body having a transmission rate of not more than 10,000 cm 3 /(m 2 ·24 h·atm) for the specific gas; preventing a contact between the facilitated transport membrane and the specific gas inside the packaging body in which the facilitated transport membrane is put; and lastly sealing the packaging body, wherein the transmission rate is measured in conformity to JIS K7126-1 by pressure sensor method. putting the facilitated transport membrane in a packaging body having a transmission rate of not more than 10,000 cm 3 /(m 2 ·24 h·atm) for the specific gas; preventing a contact between the facilitated transport membrane and the specific gas inside the packaging body in which the facilitated transport membrane is put; and lastly sealing the packaging body, wherein the transmission rate is measured in conformity to JIS K7126-1 by pressure sensor method.
A method to control the display of multimedia data on an audio-video rendering device when a channel selection navigation, from a first channel to a second channel, is activated by a trick play command associated to said rendering device, the multimedia data having a type of multimedia content and being transmitted on a channel received at said rendering device, wherein said method comprises the steps of - intercepting (RCUCR) the action activated by said trick play command, - analyzing (TPCA) whether the intercepted action of said trick play command activates a channel selection navigation, - interpreting (SDMD) the multimedia data transmitted on said second channel if said intercepted trick play command activates a channel selection navigation, and - preventing (ADIF) the multimedia data transmitted on said second channel to be displayed on said audio-video rendering device if the transmitted multimedia data is of a predetermined content type, characterized in that said method further comprises the step of displaying on said audio-video rendering device multimedia data of a second content type (PRS, PGS) in replacement of the multimedia data of said predetermined content type, said second content type (PRS, PGS) being distinct from said predetermined content type; and the step of allowing the multimedia data of said predetermined content type transmitted on said second channel to be displayed on said audio-video rendering device after a predetermined time delay. - intercepting (RCUCR) the action activated by said trick play command, - analyzing (TPCA) whether the intercepted action of said trick play command activates a channel selection navigation, - interpreting (SDMD) the multimedia data transmitted on said second channel if said intercepted trick play command activates a channel selection navigation, and - preventing (ADIF) the multimedia data transmitted on said second channel to be displayed on said audio-video rendering device if the transmitted multimedia data is of a predetermined content type, characterized in that said method further comprises the step of displaying on said audio-video rendering device multimedia data of a second content type (PRS, PGS) in replacement of the multimedia data of said predetermined content type, said second content type (PRS, PGS) being distinct from said predetermined content type; and the step of allowing the multimedia data of said predetermined content type transmitted on said second channel to be displayed on said audio-video rendering device after a predetermined time delay.
A surgical instrument for inserting a spinal implant (100, 170) in the intervertebral disc space between two adjacent vertebrae and an anchor (130, 140, 150, 160, 164, 166) engageable with the implant and an adjacent vertebra, the instrument comprising: an engagement portion including a superior surface (228, 528), an inferior surface (230, 530), and a distal engagement surface (206, 506) for interfacing with the implant; and a handle portion (208, 508) connected to the engagement portion having a proximal surface (226, 526) for impaction, characterized in that a pair of tracks (518, 519; 520, 521) is provided on at least one of the superior and inferior surfaces for slidably translating the anchor toward the engagement surface, wherein the pair of tracks cross on the at least one of the superior and inferior surfaces. an engagement portion including a superior surface (228, 528), an inferior surface (230, 530), and a distal engagement surface (206, 506) for interfacing with the implant; and a handle portion (208, 508) connected to the engagement portion having a proximal surface (226, 526) for impaction, characterized in that a pair of tracks (518, 519; 520, 521) is provided on at least one of the superior and inferior surfaces for slidably translating the anchor toward the engagement surface, wherein the pair of tracks cross on the at least one of the superior and inferior surfaces.
An ultrasound diagnosis apparatus comprising: a two-dimensional array ultrasound probe configured to emit focused beams generating shear waves onto a plurality of focusing points and detect echo signals; a processor configured to determine the plurality of focusing points on a cross-section of interest and acquire shear wave elasticity data with respect to the cross-section of interest a display configured to display the acquired shear wave elasticity data; and an input interface configured to receive an input of at least one of cross-sections of interest of an object in a 3D space, the number of the plurality of focusing points, and an interval between each of the plurality of focusing points, wherein the processor is further configured to determine an angle and a position of the cross-section of interest based on the input, and control the display to display the acquired shear wave elasticity data with respect to the cross-section of interest, and wherein the plurality of focusing points are focal points onto which the focused beams are emitted. a two-dimensional array ultrasound probe configured to emit focused beams generating shear waves onto a plurality of focusing points and detect echo signals; a processor configured to determine the plurality of focusing points on a cross-section of interest and acquire shear wave elasticity data with respect to the cross-section of interest a display configured to display the acquired shear wave elasticity data; and an input interface configured to receive an input of at least one of cross-sections of interest of an object in a 3D space, the number of the plurality of focusing points, and an interval between each of the plurality of focusing points, wherein the processor is further configured to determine an angle and a position of the cross-section of interest based on the input, and control the display to display the acquired shear wave elasticity data with respect to the cross-section of interest, and wherein the plurality of focusing points are focal points onto which the focused beams are emitted.
A solar cell cutting and passivation integrated processing method, a solar cell sequentially comprising a substrate, a front electrode layer, a light absorption layer and a back electrode layer from bottom to top, wherein before laser structured cutting is performed for the back electrode layer, a protective layer is disposed on a surface of the back electrode layer, and then laser structured cutting is performed for the back electrode layer, or the back electrode layer and the light absorption layer simultaneously through the protective layer to obtain a corresponding structured trench, and a material of the protective layer is partially molten due to a localized high temperature generated by the laser processing in a laser structured cutting process and infiltrates into the underlying corresponding structured trench, characterized in that the laser structured cutting is performed while the protective layer is kept from being cut by laser, wherein during cutting, the back electrode layer is located on the focal plane of the laser beam and the material of the protective layer is not located on the focal plane. the laser structured cutting is performed while the protective layer is kept from being cut by laser, wherein during cutting, the back electrode layer is located on the focal plane of the laser beam and the material of the protective layer is not located on the focal plane.
A handle grip with heater comprising a cylindrical core body made of a synthetic resin, said core body having a flat and shallow groove formed spirally in a surface of the core body, and a metal strip having a width substantially identical with a width of said flat and shallow groove embedded within the flat and shallow groove and generating heat by supplying an electric current through said metal strip, said core body has an electric power supply conductor guide recess formed in an outer surface of the core body in a longitudinal direction such that conductor guide recess has a depth larger than a depth of said flat and shallow groove, one of two conductors (13a, 13b) of an electric power supply wire is embedded within said electric power supply conductor recess and the end portions of the two electric power supply conductors (13a, 13b) are connected respectively to the end portions of the metal strip, the core body includes a ring-shaped portion formed at a root of the core body and has formed therein a guide portion for supporting the electric power supply wire, and wherein said electric power supply wire is arranged along an outer periphery of the ring-shaped portion, said electric supply wire is turned around a direction converting portion at said guide portion into the same or opposite direction and is drawn outwardly from the guide portion, an electric power supply wire recess is formed in the guide portion in a U-shaped manner around the wire direction converting portion covering said electric power wire, and one or more slip preventing ridges are formed on a surface of said direction converting portion for preventing, slip of said electric power wire.
A method for forming a device for the detection and/or sequencing of targeted long chain molecules comprising: providing a nanochannel having a common porous roof comprising a plurality of tortuous nanopores; providing an entrance port to the nanochannel for the introduction of long chain molecules in suitable aqueous fluids; sealing some of the tortuous nanopores in the porous roof via conformal atomic layer deposition and/or chemical vapor deposition; wherein a diameter of at least one of the tortuous nanopores that remain is reduced such that only one long chain molecule can be translocated through the pore one at a time, and wherein the density of the nanopores remaining is reduced so that a tortuous nanopore can be optically resolved via Raman scattering; depositing a field enhancement structure on the roof of the nanochannel using a directional process, wherein the process is a combination of anisotropic and isotropic deposition processes, and wherein the field enhancement structure is a plasmonic or polaritonic structure and wherein the field enhancement structure is self-aligned to the nanopores remaining in the roof; and providing electrodes for applying a voltage to the nanochannel to control translocation of the single long chain molecule through the tortuous nanopores. providing a nanochannel having a common porous roof comprising a plurality of tortuous nanopores; providing an entrance port to the nanochannel for the introduction of long chain molecules in suitable aqueous fluids; sealing some of the tortuous nanopores in the porous roof via conformal atomic layer deposition and/or chemical vapor deposition; wherein a diameter of at least one of the tortuous nanopores that remain is reduced such that only one long chain molecule can be translocated through the pore one at a time, and wherein the density of the nanopores remaining is reduced so that a tortuous nanopore can be optically resolved via Raman scattering; depositing a field enhancement structure on the roof of the nanochannel using a directional process, wherein the process is a combination of anisotropic and isotropic deposition processes, and wherein the field enhancement structure is a plasmonic or polaritonic structure and wherein the field enhancement structure is self-aligned to the nanopores remaining in the roof; and providing electrodes for applying a voltage to the nanochannel to control translocation of the single long chain molecule through the tortuous nanopores.
A method for determining a level of a substance in a container, the method comprising: emitting one pulse from a light-emitting diode light source in a field of illumination toward a surface of said substance in said container; detecting a backscatter signal of said pulse by an optical detector; creating a lidar trace from said backscatter signal, said lidar trace including at least one reflection peak; identifying a surface reflection among said at least one reflection peak in said lidar trace, said surface reflection being a reflection of said pulse from said surface; signal-fitting said surface reflection to provide a fitted surface trace including curve-fitting a non-symmetrical quasi-Gaussian function on said trace; and determining a level of said substance in said container using said fitted surface trace. emitting one pulse from a light-emitting diode light source in a field of illumination toward a surface of said substance in said container; detecting a backscatter signal of said pulse by an optical detector; creating a lidar trace from said backscatter signal, said lidar trace including at least one reflection peak; identifying a surface reflection among said at least one reflection peak in said lidar trace, said surface reflection being a reflection of said pulse from said surface; signal-fitting said surface reflection to provide a fitted surface trace including curve-fitting a non-symmetrical quasi-Gaussian function on said trace; and determining a level of said substance in said container using said fitted surface trace.
Dishwasher, particularly commercial dishwasher, with a washing space, with a cover for closing the dishwasher from the top and with spraying means (10a, 10b, 10c) arranged inside the washing space, wherein at least a first dish basket is laterally insertable in a reception position into the washing space when the cover is open, characterized in that a lifting mechanism (12, 14) with a movable dish basket support is provided for lifting up a first dish basket arranged inside the washing space from the reception position into an upper position, particularly vertically upwards, and for making space for reception of a second dish basket in the reception position, and wherein the spraying means (10a, 10b, 10c) are arranged for cleaning the first dish basket in the upper position as well as the second dish basket arranged below the first dish basket in a lower position.
A method comprising: receiving an application flow comprising a source flow and a supplementary flow from a core network (304, 308, 310); and characterised by: in the event of determining that the application flow is to be transmitted to at least one user equipment via unicast transmission utilizing a lower layer re-transmission mechanism of a radio access network, RAN, and in the event of determining based on a flow payload indication received from the core network (304, 308, 310) that the supplementary flow is a forward error correction repair flow, causing the source flow to be transmitted to the at least one user equipment and dropping the transmission of the supplementary flow to the at least one user equipment.
An input auxiliary apparatus comprising: an input means for inputting character strings; an embellishment information retaining means for retaining embellishment information, affirmation information and denial and denial information on a plurality of postures in a storing means in advance in a manner to correlate each posture with one of the embellishment information, the affirmation information and the denial information; a posture detecting means applying a three-axis acceleration sensor for detecting the posture; a reading means for reading out the embellishment information, the affirmation information and the denial information linked with the posture detected by the posture detecting means from the storing means; and an embellishment applying means for applying the embellishment information read out by the reading means to the character strings if the affirmation information is read out by the reading means and refusing the embellishment information read out by the reading means to the character strings if the denial information is read out by the reading means, wherein the input means includes a speech recognition means for recognizing voice data based on speech recognition and converting the voice data to character strings, or a means for taking-in an external signal corresponding to recognition results of the speech recognition means. an input means for inputting character strings; an embellishment information retaining means for retaining embellishment information, affirmation information and denial and denial information on a plurality of postures in a storing means in advance in a manner to correlate each posture with one of the embellishment information, the affirmation information and the denial information; a posture detecting means applying a three-axis acceleration sensor for detecting the posture; a reading means for reading out the embellishment information, the affirmation information and the denial information linked with the posture detected by the posture detecting means from the storing means; and an embellishment applying means for applying the embellishment information read out by the reading means to the character strings if the affirmation information is read out by the reading means and refusing the embellishment information read out by the reading means to the character strings if the denial information is read out by the reading means, wherein the input means includes a speech recognition means for recognizing voice data based on speech recognition and converting the voice data to character strings, or a means for taking-in an external signal corresponding to recognition results of the speech recognition means.
Device (10; 10a) for connecting two plastic components (1; 1a, 2; 2a) by means of a laser beam, wherein the first component (1; 1a) has a border region which bounds an opening and is connected in a joining zone (20; 20a) by bearing contact by means of a laser weld seam to the second component (2, 2a) which is designed in particular as a cover element, wherein the laser beam generated by a laser beam device acts through the second component (2; 2a) onto a border region of the first component (1; 1a), wherein at least one in particular frame-shaped sealing element (24, 25; 30) which is separate from the components (1; 1a, 2; 2a) and is intended for avoiding welding material escaping from the joining zone (20; 20a) is provided as part the device (10; 10a), and wherein the at least one sealing element (24, 25; 30) is at least indirectly arranged on a support element (15; 15a) and is adapted in a form-fitting manner to the shape of the two components (1; 1a, 2; 2a) in the region of the joining zone (20; 20a), characterized in that the at least one sealing element (24, 25) is preferably of multi-part design, and in that the components of the at least one sealing element (24, 25) are arranged pivotably on the support element, or in that the sealing element is of single-part design and has centring aid, preferably in the form of an insertion slope, this facilitating the movement along the outer contour of the components (1, 2).
A system, comprising: a) a perfusion manifold assembly, comprising i) one or more fluid reservoirs, ii) a fluidic backplane positioned under, and in fluidic communication with, said fluid reservoirs, said fluidic backplane comprising fluid channels that terminate at fluid outlet ports, wherein one or more fluid outlet ports comprise protruding droplets and iii) a projecting member comprising a guide mechanism; and b) a microfluidic device positioned in a carrier, said carrier detachably engaging said guide mechanism, said microfluidic device comprising i) microchannels in fluidic communication with said perfusion manifold assembly via ii) one or more inlet ports on a iii) mating surface, wherein one or more inlet ports on said mating surface of said microfluidic device comprise droplets protruding above said mating surface, wherein said one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly causing a droplet-to-droplet connection when one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly under conditions such that fluid flows from said fluid reservoirs of said perfusion manifold assembly through said one or more fluid outlet ports into said one or more fluid inlet ports of said microfluidic device. a) a perfusion manifold assembly, comprising i) one or more fluid reservoirs, ii) a fluidic backplane positioned under, and in fluidic communication with, said fluid reservoirs, said fluidic backplane comprising fluid channels that terminate at fluid outlet ports, wherein one or more fluid outlet ports comprise protruding droplets and iii) a projecting member comprising a guide mechanism; and b) a microfluidic device positioned in a carrier, said carrier detachably engaging said guide mechanism, said microfluidic device comprising i) microchannels in fluidic communication with said perfusion manifold assembly via ii) one or more inlet ports on a iii) mating surface, wherein one or more inlet ports on said mating surface of said microfluidic device comprise droplets protruding above said mating surface, wherein said one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly causing a droplet-to-droplet connection when one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly under conditions such that fluid flows from said fluid reservoirs of said perfusion manifold assembly through said one or more fluid outlet ports into said one or more fluid inlet ports of said microfluidic device.
A method of diagnosing whether a patient presents multiple liver pathologies, wherein a patient has been diagnosed with a first liver pathology, comprising the step of determining the human progastrin (hPG) level in a plasma or serum sample from said patient, wherein a progastrin threshold level of at least 400pM indicates that said patient is likely suffering from at least one additional liver pathology.
A cord blood collection device, the device comprising a chamber in fluid communication with a tapered nozzle; and in which the tapered nozzle further comprises a series of steps along its length, the series of steps configured to engage with a series of collection containers having different diameters.