mhurhangee/ep-ind-claims huggingface dataset:
An engagement assembly for engaging a filter plate that spans at least one grid support of a rotary drum filter, the engagement assembly comprising: a retaining clip configured to be mounted on the grid support, the retaining clip having a body, a first shelf extending outwardly from the body in a first direction and a second shelf extending outwardly from the body in a direction opposite the first direction; characterized in that the engagement assembly further comprises an S-clip for fixing the retaining clip to the filter plate, the S-clip having a major concave area configured to receive a leading end or a trailing end of a filter plate, and a minor concave area (m) configured to receive the first shelf or the second shelf of the retaining clip, wherein: the major concave area is disposed adjacent to the minor concave area (m), the minor concave area (m) is separated from the major concave area by a body strip of the S-clip, and wherein the minor concave area (m) is disposed in a direction that is opposite of a direction of the major concave area. a retaining clip configured to be mounted on the grid support, the retaining clip having a body, a first shelf extending outwardly from the body in a first direction and a second shelf extending outwardly from the body in a direction opposite the first direction; characterized in that the engagement assembly further comprises an S-clip for fixing the retaining clip to the filter plate, the S-clip having a major concave area configured to receive a leading end or a trailing end of a filter plate, and a minor concave area (m) configured to receive the first shelf or the second shelf of the retaining clip, wherein: the major concave area is disposed adjacent to the minor concave area (m), the minor concave area (m) is separated from the major concave area by a body strip of the S-clip, and wherein the minor concave area (m) is disposed in a direction that is opposite of a direction of the major concave area. the major concave area is disposed adjacent to the minor concave area (m), the minor concave area (m) is separated from the major concave area by a body strip of the S-clip, and wherein the minor concave area (m) is disposed in a direction that is opposite of a direction of the major concave area.
A method for manufacturing a microdischarge device comprising: a first electrode, the electrode comprising a conductor and a microcavity, the electrode encapsulated with a first dielectric; and a second electrode, the electrodes configured to ignite a discharge in the microcavity when a time-varying potential is applied between the electrodes, wherein the method for manufacturing the encapsulated electrode comprises: providing a metal substrate, the metal substrate including at least one microcavity; anodizing the substrate to form a first layer, the first layer including pores; dissolving a portion of the first layer; and performing a second anodization of the first layer when the portion of the first layer is dissolved, forming an encapsulating layer, thereby forming the encapsulated electrode. a first electrode, the electrode comprising a conductor and a microcavity, the electrode encapsulated with a first dielectric; and a second electrode, the electrodes configured to ignite a discharge in the microcavity when a time-varying potential is applied between the electrodes, wherein the method for manufacturing the encapsulated electrode comprises: providing a metal substrate, the metal substrate including at least one microcavity; anodizing the substrate to form a first layer, the first layer including pores; dissolving a portion of the first layer; and performing a second anodization of the first layer when the portion of the first layer is dissolved, forming an encapsulating layer, thereby forming the encapsulated electrode. providing a metal substrate, the metal substrate including at least one microcavity; anodizing the substrate to form a first layer, the first layer including pores; dissolving a portion of the first layer; and performing a second anodization of the first layer when the portion of the first layer is dissolved, forming an encapsulating layer, thereby forming the encapsulated electrode.
A method of determining whether a human has an increased risk for myocardial infarction, comprising testing nucleic acid from said human for the presence or absence of a single nucleotide polymorphism in the nucleotide sequence of SEQ ID NO:3944 in said human's nucleic acids, wherein the presence of A at position 101 of SEQ ID NO: 3944 or the presence of T at position 101 of its complement indicates that said human has an increased risk for myocardial infarction.
A sealed beverage preparation capsule comprising: a sealed hollow body having a top and a bottom, wherein said body comprises a thermoformed cup-shaped base portion and a top cover sheet bonded across the top of said base portion; a beverage preparation ingredient inside said body; and characterised by a layer of filter material at least about 2mm thick located inside said body and abutting the inside surface of a bottom wall of said body. a sealed hollow body having a top and a bottom, wherein said body comprises a thermoformed cup-shaped base portion and a top cover sheet bonded across the top of said base portion; a beverage preparation ingredient inside said body; and characterised by a layer of filter material at least about 2mm thick located inside said body and abutting the inside surface of a bottom wall of said body.
A method of printing on a surface of a three-dimensional object (30; 30'; 30") with a printer (10; 10') having a print surface and a print head, wherein a jig (36; 36'; 36") is used for positioning the object on the print surface in a position in which the surface to be printed on faces the print head, characterized by the steps of: - providing a three-dimensional digital model of the jig (36; 36'; 36"); - using the printer (10; 10') for printing the jig on the print surface; and - placing the object (30; 30'; 30") against the jig (36; 36'; 36") wherein a sheet-like substrate is placed on the print surface and held in position thereon, and the jig is printed onto the substrate such that is adheres to the substrate. - providing a three-dimensional digital model of the jig (36; 36'; 36"); - using the printer (10; 10') for printing the jig on the print surface; and - placing the object (30; 30'; 30") against the jig (36; 36'; 36") wherein a sheet-like substrate is placed on the print surface and held in position thereon, and the jig is printed onto the substrate such that is adheres to the substrate.
Method for load transport in a tower of a wind turbine by means of a guide rail, wherein the tower comprises a wall opening for guiding through a load, comprising the following steps: releasably mounting at least one fastening device in the interior of the tower; suspending a holding device in the interior of the tower onto the at least one releasably arranged fastening device; arranging the guide rail in the wall opening, wherein one half of the guide rail is held within the tower by the holding device and the other half of the guide rail is held outside the tower by a carrying device; fastening the load to the guide rail on one side of the wall opening by means of at least one guide carriage which is movable along the guide rail; transporting the load onto an opposite side of the wall opening by moving the guide carriage. releasably mounting at least one fastening device in the interior of the tower; suspending a holding device in the interior of the tower onto the at least one releasably arranged fastening device; arranging the guide rail in the wall opening, wherein one half of the guide rail is held within the tower by the holding device and the other half of the guide rail is held outside the tower by a carrying device; fastening the load to the guide rail on one side of the wall opening by means of at least one guide carriage which is movable along the guide rail; transporting the load onto an opposite side of the wall opening by moving the guide carriage.
A battery mounting structure for a vehicle, comprising: a battery frame fastened and fixed to a vehicle body via a plurality of first fastening portions; and a battery fastened and fixed to the battery frame via a plurality of second fastening portions, characterized in that a ductile member (52, 54) is provided over the first fastening portion and the second fastening portion; the battery frame is made of fiber reinforced resin; a plurality of fastening pairs each including the first fastening portion and the second fastening portion adjacent to each other is placed so as to be distanced from each other in a vehicle-body front-rear direction and in a vehicle width direction; and the ductile member (52, 54) is extended so as to connect the plurality of fastening pairs in the vehicle-body front-rear direction and in the vehicle width direction. a battery frame fastened and fixed to a vehicle body via a plurality of first fastening portions; and a battery fastened and fixed to the battery frame via a plurality of second fastening portions, characterized in that a ductile member (52, 54) is provided over the first fastening portion and the second fastening portion; the battery frame is made of fiber reinforced resin; a plurality of fastening pairs each including the first fastening portion and the second fastening portion adjacent to each other is placed so as to be distanced from each other in a vehicle-body front-rear direction and in a vehicle width direction; and the ductile member (52, 54) is extended so as to connect the plurality of fastening pairs in the vehicle-body front-rear direction and in the vehicle width direction.
A method for drilling a hole, the method comprising: positioning a ram accelerator relative to a working face comprising a geologic material, wherein the ram accelerator comprises a launch tube having a plurality of sections and each one of the plurality of sections is configured to hold one or more combustible gasses; determining a set of firing parameters associated with the ram accelerator based on one or more characteristics; configuring the ram accelerator based at least in part on the set of firing parameters; selecting a projectile to load into the ram accelerator based at least in part on the set of firing parameters; loading the projectile in the ram accelerator, wherein the projectile is configured to initiate a ram-effect combustion reaction in the one or more combustible gasses; priming the plurality of sections of the launch tube of the ram accelerator with the one or more combustible gasses; boosting the projectile into the plurality of sections along the launch tube of the ram accelerator at a ram velocity; accelerating the projectile by combusting the one or more combustible gasses in the plurality of sections in a ram combustion effect; ejecting the projectile towards the working face at a velocity that exceeds two kilometers per second; and removing ejecta resulting at least in part from a hole in the working face resulting from a collision of the projectile with the geologic material at the working face. positioning a ram accelerator relative to a working face comprising a geologic material, wherein the ram accelerator comprises a launch tube having a plurality of sections and each one of the plurality of sections is configured to hold one or more combustible gasses; determining a set of firing parameters associated with the ram accelerator based on one or more characteristics; configuring the ram accelerator based at least in part on the set of firing parameters; selecting a projectile to load into the ram accelerator based at least in part on the set of firing parameters; loading the projectile in the ram accelerator, wherein the projectile is configured to initiate a ram-effect combustion reaction in the one or more combustible gasses; priming the plurality of sections of the launch tube of the ram accelerator with the one or more combustible gasses; boosting the projectile into the plurality of sections along the launch tube of the ram accelerator at a ram velocity; accelerating the projectile by combusting the one or more combustible gasses in the plurality of sections in a ram combustion effect; ejecting the projectile towards the working face at a velocity that exceeds two kilometers per second; and removing ejecta resulting at least in part from a hole in the working face resulting from a collision of the projectile with the geologic material at the working face.
A turbine engine component comprising: an airfoil portion having a chord, a pressure side, a suction side, and a trailing edge; said trailing edge having a center discharge cooling circuit; said center discharge cooling circuit having an exit defined by a first surface on the pressure side of said airfoil portion and a second surface on the suction side of said airfoil portion; said airfoil portion having a thermal barrier coating on said pressure side and said suction side; and said thermal barrier coating on said second surface tapering to zero in thickness at a point spaced from said trailing edge so as to leave an uncoated portion on said second surface; said thermal barrier coating on said first surface extending to said trailing edge; characterised in that: on the pressure side, the thermal barrier coating tapers from a point to the trailing edge, the point being located at up to 15% of the chord of the airfoil portion from the trailing edge at any point along the span of the airfoil portion. an airfoil portion having a chord, a pressure side, a suction side, and a trailing edge; said trailing edge having a center discharge cooling circuit; said center discharge cooling circuit having an exit defined by a first surface on the pressure side of said airfoil portion and a second surface on the suction side of said airfoil portion; said airfoil portion having a thermal barrier coating on said pressure side and said suction side; and said thermal barrier coating on said second surface tapering to zero in thickness at a point spaced from said trailing edge so as to leave an uncoated portion on said second surface; said thermal barrier coating on said first surface extending to said trailing edge; characterised in that: on the pressure side, the thermal barrier coating tapers from a point to the trailing edge, the point being located at up to 15% of the chord of the airfoil portion from the trailing edge at any point along the span of the airfoil portion.
Method for the absolute or relative quantitative analysis of proteins and/or peptides with or without post translational modification(s) using a mass spectrometry method in which in a first step unlabelled proteins from an endogenous mixture are digested and subsequently digestion products thereof selected, in a second step said digestion products are fragmented, and in which in a third step a combined fragment spectrum is acquired comprising b-ions as well as y-ions of said digestion products, wherein at least one reference peptide is added to said mixture before and/or after digestion, is fragmented, acquired, and stored in said combined fragment spectrum comprising also b-ions and y-ions of said digestion products, wherein the said at least one reference peptide is added in a known concentration in case of absolute quantification or in always the same concentration in a series of experiments for relative quantitative analysis, wherein said at least one reference peptide is selectively isotopically labeled by having incorporated one isotopically labeled amino acid forming its very C-terminus or being one of the four terminal amino acids at the C-terminus and additionally one further isotopically labeled amino acid forming its very N-terminus, or being one of the four terminal amino acids at the N-terminus. one isotopically labeled amino acid forming its very C-terminus or being one of the four terminal amino acids at the C-terminus and additionally one further isotopically labeled amino acid forming its very N-terminus, or being one of the four terminal amino acids at the N-terminus.
Process for the production of polyurethane foams with reduced formaldehyde emission by reaction of A1 compounds containing isocyanate-reactive hydrogen atoms and having a molecular weight of from 400 to 15,000, A2 optionally compounds containing isocyanate-reactive hydrogen atoms and having a molecular weight of from 62 to 399, A3 water and/or physical foaming agents, A4 optionally auxiliary substances and additives, A5 compounds having at least one semicarbazide group with B di- or poly-isocyanates. A1 compounds containing isocyanate-reactive hydrogen atoms and having a molecular weight of from 400 to 15,000, A2 optionally compounds containing isocyanate-reactive hydrogen atoms and having a molecular weight of from 62 to 399, A3 water and/or physical foaming agents, A4 optionally auxiliary substances and additives, A5 compounds having at least one semicarbazide group B di- or poly-isocyanates.
A method in a network node for network based control of report messages in a wireless communications network, the network node being configured to serve a user equipment, UE, and to receive report messages from the UE, wherein the network node sends a request to the UE to start transmitting logged measurements in a report message, and receives the report message comprising logged measurements, the method being characterized by the steps of: - determining whether the received report message includes an indicator of additional logged measurements not yet transmitted; and - when the received report message includes an indicator of additional logged measurements not yet transmitted, deciding whether the additional logged measurements are to be requested based on one or more of the following: interference level experienced in a cell; radio condition measurements experienced in a cell; available radio resources; network node capacity; and UE buffer state condition. - determining whether the received report message includes an indicator of additional logged measurements not yet transmitted; and - when the received report message includes an indicator of additional logged measurements not yet transmitted, deciding whether the additional logged measurements are to be requested based on one or more of the following: interference level experienced in a cell; radio condition measurements experienced in a cell; available radio resources; network node capacity; and UE buffer state condition.
A construction kit comprising wall elements (1, 2) and connectors (3, 3') to be inserted therebetween in order to erect room dividers, wherein a) the wall elements (1, 2) are produced by compressing fiber material and comprise at least one connecting flank (100, 20) systematically provided with contours (105, 25); b) the connectors (3, 3') are arranged in the form of profiled rails on which at least one connection (30, 30') is provided, which comprises systematically arranged mating contours (35, 35'); c) the contours (105, 25) of the wall elements (1,2) are capable of a form-fit engagement with the mating contours (35, 35') of the connectors (3, 3'); d) the contours (105, 25) of the connecting flanks (100, 20) of the wall elements (1, 2) are arranged congruently on their front side and rear side and are arranged as raised webs running along a vertical line; e) the connectors (3, 3') each have a connection (30, 30') to the systematic mating contours (35, 35') on two opposite outer edges; f) the mating contour (35, 35') are arranged as raised pairwise webs which run on a vertical line and narrow the lateral mouth of a vertical groove (36, 36'); g) the contours (105, 25) raise from a lip (106.26) which extends from the connecting flank (100, 20), and the width of the lip (106, 26) finds space in the mouth gap of the mating contours (35, 35'); and h) the dimensioning of the contours (105, 25) allows inserting the contours through the intermediate spaces (34, 34') on the connector (3, 3'), characterized in that the contours (105, 25) of the connecting flanks (100, 20) of the wall elements (1, 2) run on the vertical line with alternating intermediate spaces and the mating contours (35, 35') run on the vertical line with alternating intermediate spaces (34, 34'). a) the wall elements (1, 2) are produced by compressing fiber material and comprise at least one connecting flank (100, 20) systematically provided with contours (105, 25); b) the connectors (3, 3') are arranged in the form of profiled rails on which at least one connection (30, 30') is provided, which comprises systematically arranged mating contours (35, 35'); c) the contours (105, 25) of the wall elements (1,2) are capable of a form-fit engagement with the mating contours (35, 35') of the connectors (3, 3'); d) the contours (105, 25) of the connecting flanks (100, 20) of the wall elements (1, 2) are arranged congruently on their front side and rear side and are arranged as raised webs running along a vertical line; e) the connectors (3, 3') each have a connection (30, 30') to the systematic mating contours (35, 35') on two opposite outer edges; f) the mating contour (35, 35') are arranged as raised pairwise webs which run on a vertical line and narrow the lateral mouth of a vertical groove (36, 36'); g) the contours (105, 25) raise from a lip (106.26) which extends from the connecting flank (100, 20), and the width of the lip (106, 26) finds space in the mouth gap of the mating contours (35, 35'); and h) the dimensioning of the contours (105, 25) allows inserting the contours through the intermediate spaces (34, 34') on the connector (3, 3'),
A method for dividing a total number of decoders among decoder queues of codewords of different sizes, the codewords transmitted on return communication links from data terminals to a gateway of a satellite communications system, the method comprising: for each of K groups, allocating a respective number of decoders dedicated to decoding codewords of a particular size, where K is a number of different sizes of codewords, and the respective number of decoders is allocated from the total number of decoders and allocated in proportion to current offered load of codewords of the particular size.
Installation for manufacturing security paper from a fibrous suspension which contains security fibres and which is led from a screen to a sheet forming unit with overflow, characterized in that the overflow from the sheet forming unit is led into a standpipe, which is arranged between the screen and the sheet forming unit, and the security fibres are added to the fibrous suspension only after the screen.