mhurhangee/ep-ind-claims huggingface dataset:
A forceps including an end effector assembly (100, 200) having first and second jaw members (110, 120; 210, 220) disposed in opposed relation relative to one another, at least one of the jaw members (110, 120; 210, 220) moveable with respect to the other from a spaced-apart position to an approximated position for grasping tissue therebetween, the forceps characterized in that: a knife bar (142, 242) is longitudinally translatable with respect to the first and second jaw members (110, 120; 210, 220) between a retracted position, an intermediate position, and an extended position, the knife bar (142, 242) coupled to at least one of the first and second jaw members (110, 120; 210, 220) via a cam pin-slot engagement such that, upon translation of the knife bar (142, 242) from the retracted position to the intermediate position, the first and second jaw members (110, 120; 210, 220) are moved to the approximated position to grasp tissue therebetween and such that, upon translation of the knife bar (142, 242) from the intermediate position to the extended position, the knife bar (142, 242) is extended at least partially between the jaw members (110, 120; 210, 220) to cut tissue grasped therebetween.
Process for preparing ammonia gas and CO 2 for a urea synthesis, wherein a process gas containing nitrogen, hydrogen and carbon dioxide as main components is produced from a metallurgical gas which consists of a mixed gas composed of blast furnace gas and converter gas or of a mixed gas composed of blast furnace gas, converter gas and coke oven gas, wherein the process gas is split to give a gas stream containing the CO 2 proportion and a gas mixture consisting essentially of N 2 and H 2, wherein an ammonia gas suitable for the urea synthesis is produced from the gas mixture by means of ammonia synthesis and wherein CO 2 is branched off from the CO 2 -containing gas stream in a purity and amount suitable for the urea synthesis. wherein a process gas containing nitrogen, hydrogen and carbon dioxide as main components is produced from a metallurgical gas which consists of a mixed gas composed of blast furnace gas and converter gas or of a mixed gas composed of blast furnace gas, converter gas and coke oven gas, wherein the process gas is split to give a gas stream containing the CO 2 proportion and a gas mixture consisting essentially of N 2 and H 2, wherein an ammonia gas suitable for the urea synthesis is produced from the gas mixture by means of ammonia synthesis and wherein CO 2 is branched off from the CO 2 -containing gas stream in a purity and amount suitable for the urea synthesis.
A method for allocating shared radio resources by a spectrum access server, SAS, comprising: obtaining information regarding capability of different radio access nodes requesting use of the shared radio resources; estimating compatibility between the different radio access nodes based on the information, wherein the information comprises an indication of a radio access technology, RAT, of the different radio access nodes and operating parameters associated with the RAT and wherein estimating the compatibility between the different radio access nodes comprises generating a compatibility score based on the information; and allocating the shared radio resources to the different radio access nodes based on the estimated compatibility.
A method of manufacturing a In (1- x - y) Al x Ga y N (0 ≤ x ≤ 1, 0 ≤ y ≤ 1, 0 ≤ x + y ≤ 1) crystal, comprising: a step of preparing a crucible for interiorly carrying source material; a step of, within the crucible, subliming the source material by heating the source material, to cause source-material gases to condense and thereby grow nitride semiconductor crystal; wherein in said preparation step, a crucible made from a metal whose melting point is higher than that of the source material is prepared; in between said crucible preparation step and said growth step, a step of forming a covering component that covers the outer periphery of the crucible; wherein the covering component is made of a metal whose melting point is higher than that of the source material; a step of arranging a heating element about the outer periphery of the covering component; and a step of arranging an RF coil about the outer periphery of the heating element, for heating the heating element, wherein the crucible has an exhaust port (101 a). a step of preparing a crucible for interiorly carrying source material; a step of, within the crucible, subliming the source material by heating the source material, to cause source-material gases to condense and thereby grow nitride semiconductor crystal; wherein in said preparation step, a crucible made from a metal whose melting point is higher than that of the source material is prepared; in between said crucible preparation step and said growth step, a step of forming a covering component that covers the outer periphery of the crucible; wherein the covering component is made of a metal whose melting point is higher than that of the source material; a step of arranging a heating element about the outer periphery of the covering component; and a step of arranging an RF coil about the outer periphery of the heating element, for heating the heating element, wherein the crucible has an exhaust port (101 a).
A drive mechanism for door hardware comprising: a driver operatively connected through a spring to a door hardware component to move the door hardware component by driving the spring; a support base of the drive mechanism having a pair of upstanding flanges (50, 52); a spring carriage slidably mounted to the drive mechanism, whereby the pair of upstanding flanges (50, 52) are spaced apart to receive the spring carriage and allow the spring carriage to slide therebetween, the spring is mounted in the spring carriage; a controller electrically connected to the driver to control the driver and move the door hardware component; a sensor connected to the controller and mounted to detect motion of the door hardware component; and the spring connected between the driver and the door hardware component allowing the driver to move without moving the door hardware component when motion of the door hardware component is blocked; the controller monitoring the sensor and operating the driver to drive the spring carriage which in turn drives the door hardware component at least until the sensor indicates that motion of the door hardware component by the driver and spring carriage has stopped. a driver operatively connected through a spring to a door hardware component to move the door hardware component by driving the spring; a support base of the drive mechanism having a pair of upstanding flanges (50, 52); a spring carriage slidably mounted to the drive mechanism, whereby the pair of upstanding flanges (50, 52) are spaced apart to receive the spring carriage and allow the spring carriage to slide therebetween, the spring is mounted in the spring carriage; a controller electrically connected to the driver to control the driver and move the door hardware component; a sensor connected to the controller and mounted to detect motion of the door hardware component; and the spring connected between the driver and the door hardware component allowing the driver to move without moving the door hardware component when motion of the door hardware component is blocked; the controller monitoring the sensor and operating the driver to drive the spring carriage which in turn drives the door hardware component at least until the sensor indicates that motion of the door hardware component by the driver and spring carriage has stopped.
Deployant buckle comprising - a lower arm and an upper arm which are articulated with respect to each other and a return buckle articulated on the upper arm, the deployant buckle being able to adopt a folded position in which the upper arm is folded over the lower arm and the return buckle is folded over the upper arm, in a longitudinal direction of the deployant buckle, - a locking system partly housed between the return buckle and the upper arm in order to lock the deployant buckle in the folded position, characterised in that the locking system comprises a lock with pistons and springs and can be unlocked by means of a removable key, the pattern of which is associated with the lock, and in that the locking system comprises a drawer (48, 50) into which the pistons extend when the springs are at rest in order to block the sliding of the drawer (48, 50), this drawer (48, 50) comprising a lateral passage for introduction of the key therein, the key being able to align the pistons in order to allow the sliding of the drawer (48, 50) and thus to permit the unfolding of the deployant buckle. - a lower arm and an upper arm which are articulated with respect to each other and a return buckle articulated on the upper arm, the deployant buckle being able to adopt a folded position in which the upper arm is folded over the lower arm and the return buckle is folded over the upper arm, in a longitudinal direction of the deployant buckle, - a locking system partly housed between the return buckle and the upper arm in order to lock the deployant buckle in the folded position,
A transparent substrate provided on a main face with a stack of thin layers comprising a single metallic functional layer having properties of reflection in the infrared region and/or in the solar radiation region, in particular based on silver or on silver-containing metal alloy, and two antireflective coatings (120, 160), said antireflective coatings each comprising at least one dielectric layer (122, 128; 162, 168), said functional layer being positioned between the two antireflective coatings (120, 160), characterized in that at least the antireflective coating located between said substrate and said functional layer, indeed even both antireflective coatings (120, 160), comprise(s) a layer (126, 166) comprising silicon-zirconium nitride, Si x Zr y N z, with an atomic ratio of Zr to the sum Si + Zr, y/(x + y), which is between 25.0% and 40.0%, these values being incorporated, indeed even 26.32% and 37.5%, these values being incorporated, indeed even between 27.0% and 37.0%, these values being incorporated.
A process for the purification of a feed comprising monochloroacetic acid and dichloroacetic acid wherein the feed is subjected to a catalytic hydrodechlorination step by contacting it with a source of hydrogen to convert dichloroacetic acid into monochloroacetic acid in the presence of a solid heterogeneous hydrogenation catalyst comprising a Group VIII noble metal on a carrier under hydrodechlorination conditions, wherein the reaction is carried out in the presence of a catalyst enhancer which comprises a salt of a metal selected from the group of non-noble metals of Group VIII, Group VIB, Group VIIB, and Group IIB.
A nitrogen analyzer comprising a specimen gas feeding mechanism, a nitrogen analyzing mechanism and a computer for analysis, wherein the specimen gas feeding mechanism comprises a reaction tube having a double tube structure comprising an inner tube for introducing a liquid specimen, which comprises at a head portion thereof a syringe, and an outer tube for recovering a specimen gas, the outer tube being configured for feeding oxygen therethrough, and a heating furnace for heating the reaction tube, the specimen gas feeding mechanism having a function of heating and burning the specimen in the reaction tube by the heating furnace to convert nitrogen in the specimen into nitrogen monoxide and recover the nitrogen monoxide as the specimen gas; wherein the nitrogen analyzing mechanism comprises an ozone generator and a chemiluminescence detector, the chemiluminescence detector being constructed to measure a chemiluminescence intensity based on a reaction between the nitrogen monoxide in the specimen gas fed from the specimen gas feeding mechanism and ozone produced in the ozone generator, and wherein in use, when injecting a predefined amount of the specimen into the specimen gas feeding mechanism, the nitrogen analyzer is configured to perform a diluting procedure in which the specimen is diluted with a solvent to prepare a diluted specimen having a nitrogen concentration of 5 to 100 ppm being conducted in the syringe; characterized in that the syringe is an automatic syringe, and when quantitatively determining a concentration of nitrogen in the specimen from the chemiluminescence intensity obtained in the nitrogen analyzing mechanism, the computer for analysis comprises means for calculating a weight of nitrogen in the diluted specimen based on a calibration curve previously prepared from a standard specimen having a nitrogen concentration of 5 to 100 ppm which expresses a relationship between a chemiluminescence peak area obtained from the chemiluminescence intensity as measured and the weight of nitrogen.
A process for producing a composite component, comprising the steps of: i) applying an aqueous composition comprising a polychloroprene dispersion and/or a polyurethane dispersion a) to at least one nonwoven web; ii) coagulating the aqueous composition on the nonwoven web by contacting with a coagulant and/or heating to 80 to 220°C in order to form a semifinished product comprising a binder formed from the aqueous composition; iii) optionally applying a decoration including an adhesive film; iv) then shaping the semifinished product from step ii) or iii) by pressing and/or heating to 30 to 220°C, in order to obtain the composite component; and v) optionally applying a layer, preferably of a thermoplastic polymer or resin, to a portion or the whole surface of the composite component and then optionally applying a decoration, characterized in that the aqueous composition comprises at least one thickener b). i) applying an aqueous composition comprising a polychloroprene dispersion and/or a polyurethane dispersion a) to at least one nonwoven web; ii) coagulating the aqueous composition on the nonwoven web by contacting with a coagulant and/or heating to 80 to 220°C in order to form a semifinished product comprising a binder formed from the aqueous composition; iii) optionally applying a decoration including an adhesive film; iv) then shaping the semifinished product from step ii) or iii) by pressing and/or heating to 30 to 220°C, in order to obtain the composite component; and v) optionally applying a layer, preferably of a thermoplastic polymer or resin, to a portion or the whole surface of the composite component and then optionally applying a decoration, characterized in that the aqueous composition comprises at least one thickener b).
A pressure sensitive adhesive comprising one or more amphiphilic copolymers of polydimethylsiloxane, wherein the copolymer is prepared using a polydimethylsiloxane or polymethylhydrogensiloxane macroinitiator and at least one reactive hydrophilic or amphiphilic monomer, oligomer or macromer, and combinations thereof, wherein the reactive hydrophilic or amphiphilic monomer is selected from a group consisting of N-vinyl caprolactams, vinyl pyrrolidone, vinyl esters, vinyl ethers, unsaturated acids or anhydrides and their salts, acrylates, methacrylates, acrylamides, methacrylamides, N-alkyl acrylamides, cyanate esters, hydroxy-alkyl acrylamides, glycidyl esters, glycidyl ethers, and allyl monomers, and wherein the reactive hydrophilic or amphiphilic oligomer and macromer are selected from a group consisting of polyalkyleneoxide, polyether, polyurethane, polyester, polyamide, polysaccharide, polypeptide, polyacrylate, polymethacrylate, polyacrylamide, with reactive groups selected from vinyl, epoxy, allyl, and combinations thereof.
A method of manufacturing a cellular ceramic article comprising: providing a green cellular ceramic body comprising a binder material and a plurality of channels; and coating at least one of the plurality of channels with a slurry comprising a green coating composition and a solvent to form a coating layer on at least one of the plurality of channels; wherein the binder material is cellulose ether or polyol and is insoluble in the solvent and the at least one of the plurality of channels is unplugged when coated with the slurry. providing a green cellular ceramic body comprising a binder material and a plurality of channels; and coating at least one of the plurality of channels with a slurry comprising a green coating composition and a solvent to form a coating layer on at least one of the plurality of channels; wherein the binder material is cellulose ether or polyol and is insoluble in the solvent and the at least one of the plurality of channels is unplugged when coated with the slurry.
Large manipulator comprising an extendable folding boom, which comprises a turntable that is rotatable about a vertical axis and a plurality of boom segments (5, 5a, 5b, 5c), wherein the boom segments (5, 5a, 5b, 5c) are pivotable at folding joints (6, 6a, 6b, 6c), in each case about folding axes in relation to an adjacent boom segment (5, 5a, 5b, 5c) or the turntable, by means of a respective drive assembly (8, 8a, 8b, 8c), and comprising an inclination sensor arranged at the last boom segment, which forms the boom tip, characterized by rotary angle sensors for detecting the folding angles (φ 1, φ2, φ 3, φ 4) between the adjacent boom segments (5, 5a, 5b, 5c) and between the first boom segment and the adjacent turntable, and a control unit that is configured to approximately establish an elastic deformation of the folding boom taking account of the detected folding angles (φ 1, φ 2, φ 3, φ 4) and the inclination (ψ EP,m) of the last boom segment that was detected by means of the inclination sensor. characterized by rotary angle sensors for detecting the folding angles (φ 1, φ2, φ 3, φ 4) between the adjacent boom segments (5, 5a, 5b, 5c) and between the first boom segment and the adjacent turntable, and a control unit that is configured to approximately establish an elastic deformation of the folding boom taking account of the detected folding angles (φ 1, φ 2, φ 3, φ 4) and the inclination (ψ EP,m) of the last boom segment that was detected by means of the inclination sensor.
A network side device, wherein the network side device comprises a processor and a communications interface, wherein the processor is configured to determine N fixed channels based on preconfigured frequencies, wherein N is an integer greater than or equal to 2; the processor is configured to determine a first fixed channel from the N fixed channels, wherein the first fixed channel is M channels in the N fixed channels, M≤N, and M is a positive integer; the processor is configured to control the communications interface to send a discovery reference signal, DRS, on the first fixed channel, wherein the DRS comprises at least one of a synchronization signal, broadcast information, and a system message; and the processor is configured to control the communications interface to perform, through frequency hopping, data transmission with a user terminal on a data channel, wherein the data channel is all or some channels other than the N fixed channels; wherein when the discovery reference signal, DRS, is sent on the first fixed channel, the processor is configured to control the communications interface to send the DRS on the first fixed channel in one sending time window, wherein the sending time window is a time interval for sending the DRS; and wherein before the DRS is sent on the first fixed channel in one sending time window, the processor is further configured to control the communications interface to perform a clear channel assessment, CCA, on the first fixed channel in the sending time window; the processor is further configured to calculate a first remaining time length in the sending time window when an assessment result of the CCA indicates that the first fixed channel is occupied; and the processor is further configured to control, when the first remaining time length is not less than a sum of a time length for performing the CCA for one time and a time length for sending the DRS for one time, the communications interface to re-perform the CCA on the first fixed channel; and when the DRS is sent on the first fixed channel in one sending time window, the processor is specifically configured to control, when an assessment result of the re-performed CCA indicates that the first fixed channel is idle, the communications interface to send the DRS on the first fixed channel.
A header- tank assembly for a fluid, comprising: - a header comprising a plurality of openings to receive tubes, - a cover configured to be assembled with the header to form a channel for a fluid, - a first baffle forming an end wall for the fluid channel at an end of the header, - a second baffle comprising at least one opening configured to provide a fluidal communication between the header-tank assembly and a fluid loop, - a distribution device located between the first baffle and the second baffle, the distribution device further comprising open ends, wherein at least one open end of the distribution device is in a contact with the first baffle and the other is fluidly connected with the first opening, characterised in that the first baffle comprises a sealing portion configured to be fixed to the open end of the distribution device to form a fluid- tight connection blocking the exit of the fluid from the open end of the distribution device, wherein the header- tank assembly comprises two pairs of baffles, each pair for a cover, the baffles of a pair are configured to be located at the opposite ends of the cover and wherein the sealing portion comprises a sloping portion configured to form an additional orifice at least in-line with the outline of the sealing portion. - a header comprising a plurality of openings to receive tubes, - a cover configured to be assembled with the header to form a channel for a fluid, - a first baffle forming an end wall for the fluid channel at an end of the header, - a second baffle comprising at least one opening configured to provide a fluidal communication between the header-tank assembly and a fluid loop, - a distribution device located between the first baffle and the second baffle, the distribution device further comprising open ends, wherein at least one open end of the distribution device is in a contact with the first baffle and the other is fluidly connected with the first opening,
An image processing method for rendering an image space expressed using an image frame, said image frame comprising a plurality of areas, the method comprising: determining a number of virtual point lights (VPLs) to be arranged in the image space for each of the areas of a current image frame; projecting VPLs that were arranged for a previous image frame in the image space for the current image frame, wherein the current image frame is temporally concatenated with the previous image frame; adjusting a result of the projection based on the determined number of VPLs; and rendering the current image frame based on the adjustment of the result of the projection, characterized in that the adjusting comprises adjusting a luminance of the VPLs sampled in the current frame using a temporal filter based on a luminance of the VPLs sampled in the previous frame. determining a number of virtual point lights (VPLs) to be arranged in the image space for each of the areas of a current image frame; projecting VPLs that were arranged for a previous image frame in the image space for the current image frame, wherein the current image frame is temporally concatenated with the previous image frame; adjusting a result of the projection based on the determined number of VPLs; and rendering the current image frame based on the adjustment of the result of the projection, characterized in that the adjusting comprises adjusting a luminance of the VPLs sampled in the current frame using a temporal filter based on a luminance of the VPLs sampled in the previous frame.