mhurhangee/ep-ind-claims huggingface dataset:
An element (1124; 3006; 3202; 3302) adapted to release an object gripped by a gripper unit, wherein said gripper unit includes a plurality of gripper fingers for gripping the object, said element (1124; 3006; 3202; 3302) comprising: a tubular body comprising a central axial bore running the length of the tubular body with a first end and a second end, wherein the tubular body is configured to receive at least a portion of said object (1006; 3014) into said central axial bore through said first end, characterized in that the first end includes a plurality of slots (3102; 3206) parallel to the axis of the central axial bore and being open at the first end, said plurality of slots (3102; 3206) being positioned to receive portions of the plurality of gripper fingers of the gripper unit, wherein said tubular body is configured to restrain the object as the plurality of gripper fingers are extracted through the plurality of slots to release the object. a tubular body comprising a central axial bore running the length of the tubular body with a first end and a second end, wherein the tubular body is configured to receive at least a portion of said object (1006; 3014) into said central axial bore through said first end, characterized in that the first end includes a plurality of slots (3102; 3206) parallel to the axis of the central axial bore and being open at the first end, said plurality of slots (3102; 3206) being positioned to receive portions of the plurality of gripper fingers of the gripper unit, wherein said tubular body is configured to restrain the object as the plurality of gripper fingers are extracted through the plurality of slots to release the object.
A computer-implemented method for generating annotated image data, said method comprising acquiring a plurality of consecutive time-series images (101a-f) that have been captured by an onboard camera mounted on a vehicle and that include at least one image (101c-f) to which a first annotation is attached, the first annotation indicating a first region representing a moving object that is present on a path along which the vehicle travels; determining, for each of the plurality of consecutive time-series images (101a-f) acquired in the acquiring, in reverse chronological order from an image corresponding to the last time point in the time series, whether the first region exists in the image on the basis of whether the first annotation is attached to the image; identifying, among the plurality of consecutive time-series images (101a-f), a first image corresponding to a first time point for which it is determined for the first time in the determining that the first region does not exist, and setting a second region including a part of a region of an object in the identified first image and indicating a situation where the moving object is obstructed by the object before appearing on the path from behind the object, the second region having substantially the same dimensions as the first region in a second image corresponding to a second time point that is the next time point in chronological order after the first time point in the time series; and attaching a second annotation to the first image, the second annotation indicating the second region set in the identifying and setting. acquiring a plurality of consecutive time-series images (101a-f) that have been captured by an onboard camera mounted on a vehicle and that include at least one image (101c-f) to which a first annotation is attached, the first annotation indicating a first region representing a moving object that is present on a path along which the vehicle travels; determining, for each of the plurality of consecutive time-series images (101a-f) acquired in the acquiring, in reverse chronological order from an image corresponding to the last time point in the time series, whether the first region exists in the image on the basis of whether the first annotation is attached to the image; identifying, among the plurality of consecutive time-series images (101a-f), a first image corresponding to a first time point for which it is determined for the first time in the determining that the first region does not exist, and setting a second region including a part of a region of an object in the identified first image and indicating a situation where the moving object is obstructed by the object before appearing on the path from behind the object, the second region having substantially the same dimensions as the first region in a second image corresponding to a second time point that is the next time point in chronological order after the first time point in the time series; and attaching a second annotation to the first image, the second annotation indicating the second region set in the identifying and setting.
A system for forming a pre-baked food product or a food product rework into an agglomerated food product, said system comprising: a forming member comprising a forming cavity (110, 302) for receiving the pre-baked food product or the food product rework; an ultrasonic horn (105, 310) for actuating to compress the pre-baked food product or the food product rework between said ultrasonic horn and said forming member (110, 310) to form an agglomerated food product; an ejection member (125, 304) for ejecting said formed agglomerated food product away from said forming member (110, 302) characterised in that the top surface of said ejection member (125, 304) is flush with the bottom of said forming cavity (110, 302). a forming member comprising a forming cavity (110, 302) for receiving the pre-baked food product or the food product rework; an ultrasonic horn (105, 310) for actuating to compress the pre-baked food product or the food product rework between said ultrasonic horn and said forming member (110, 310) to form an agglomerated food product; an ejection member (125, 304) for ejecting said formed agglomerated food product away from said forming member (110, 302) characterised in that the top surface of said ejection member (125, 304) is flush with the bottom of said forming cavity (110, 302).
A hydrogen storage alloy material having a bulk region and an interface oxide region, said interface region having a plurality of catalytic channels defined therethrough, said channels having a cross-sectional dimension in the range of 25-250 angstroms, such as a range of 25-150 angstroms, and a length which is greater than said cross-sectional dimension, said channels including a plurality catalytic sites defined thereupon, said sites having a concentration of nickel which is greater than the concentration of nickel in the remainder of said alloy; wherein the volume fraction of said channels in said interface region is greater than 5%.
A manufacturing process for large annular forgings is characterised by the following steps: preparing prefabricated blanks; preparing a level I hourglass-shaped module from the prefabricated blanks; performing upsetting deformation along the height direction and inter-forging heat preservation after heating the level I hourglass-shaped module to prepare an intermediate blank; preparing a level II hourglass-shaped module from the intermediate blanks; performing upsetting deformation along the height direction and inter-forging heat preservation after heating the level II hourglass-shaped module to prepare a blank; manufacturing and processing the blank into an annular forge piece. preparing prefabricated blanks; preparing a level I hourglass-shaped module from the prefabricated blanks; performing upsetting deformation along the height direction and inter-forging heat preservation after heating the level I hourglass-shaped module to prepare an intermediate blank; preparing a level II hourglass-shaped module from the intermediate blanks; performing upsetting deformation along the height direction and inter-forging heat preservation after heating the level II hourglass-shaped module to prepare a blank; manufacturing and processing the blank into an annular forge piece.
A network interface device comprising: an integrated circuit device comprising at least one processor; and a memory, wherein said integrated circuit device is configured to execute a function with respect to at least a part of stored data in said memory, wherein an output of said function is such that a size of said output of said function together with a size of said stored data is greater than a size of available memory for storing data. an integrated circuit device comprising at least one processor; and a memory, wherein said integrated circuit device is configured to execute a function with respect to at least a part of stored data in said memory, wherein an output of said function is such that a size of said output of said function together with a size of said stored data is greater than a size of available memory for storing data.
A synergistic anti-cancer composition comprising: a) a cationic liposome; comprising i. DODEAC (N, N-dihydroxyethyl, N, N-dioctadecyl ammonium chloride); ii. cholesterol; iii. dexamethasone; and iv. a lipophilic anti-cancer drug selected from ESC8 (17 α-[3-(N,N-dioctyl,N-methyl-amino)-propan-1-yl]-17β-estradiol) and nutilin; wherein, the DODEAC, the cholesterol, dexamethasone and the anti-cancer drug are formulated in the range of 1: 1: 0.75: 0.1 to 1: 1: 0.75: 0.5. b) genetic material wherein said genetic material is a plasmid containing silencing hairpin RNA (shRNA) against Neuropilin-1 (NRP-1) wherein, the genetic material is complexed with the cationic liposome in the range of 1:2 to 1:8 molar charge ratio. a) a cationic liposome; comprising i. DODEAC (N, N-dihydroxyethyl, N, N-dioctadecyl ammonium chloride); ii. cholesterol; iii. dexamethasone; and iv. a lipophilic anti-cancer drug selected from ESC8 (17 α-[3-(N,N-dioctyl,N-methyl-amino)-propan-1-yl]-17β-estradiol) and nutilin; wherein, the DODEAC, the cholesterol, dexamethasone and the anti-cancer drug are formulated in the range of 1: 1: 0.75: 0.1 to 1: 1: 0.75: 0.5. i. DODEAC (N, N-dihydroxyethyl, N, N-dioctadecyl ammonium chloride); ii. cholesterol; iii. dexamethasone; and iv. a lipophilic anti-cancer drug selected from ESC8 (17 α-[3-(N,N-dioctyl,N-methyl-amino)-propan-1-yl]-17β-estradiol) and nutilin; b) genetic material wherein said genetic material is a plasmid containing silencing hairpin RNA (shRNA) against Neuropilin-1 (NRP-1)
An apparatus for winding wire coils and forming wire conductor leads connected to the wire coils; the apparatus comprising: a winding form (10', 10") for forming the wire coils suitable for rotating to draw wire conductor onto the surface (12', 12", 12''') of the winding form to form the wire coils; a coil insertion tool having an axis and guide bars of predetermined length for being aligned with the winding form to receive branches of the wire coils in spacing (46") separating the guide bars; an expulsion member for pushing the branches of the wire coils, after winding of the coils, off the surface of the winding form (10', 10") in the direction of the insertion tool; a rotation assembly (35, 39) for rotating the winding form (10', 10") and the expulsion member around a rotation axis during winding of the coils,; a first assembly (15, 18, 48, 49, 52) for supporting the winding form (10'10"); and translating the winding form (10', 10") towards and away with respect to the coil insertion tool; a second assembly (18, 31, 33, 34) for supporting the expulsion member and translating the expulsion member along a translation path, for pushing the branches of the wire coils; wherein the second assembly (18, 31, 33, 34) comprises means (18, 31, 30) for translating the expulsion member, after winding of the coils, through its predetermined maximum extent of travel along the guide bars without being obstructed by the first assembly and without being dependent of the position occupied by the winding form (10', 10") along the rotation axis. a winding form (10', 10") for forming the wire coils suitable for rotating to draw wire conductor onto the surface (12', 12", 12''') of the winding form to form the wire coils; a coil insertion tool having an axis and guide bars of predetermined length for being aligned with the winding form to receive branches of the wire coils in spacing (46") separating the guide bars; an expulsion member for pushing the branches of the wire coils, after winding of the coils, off the surface of the winding form (10', 10") in the direction of the insertion tool; a rotation assembly (35, 39) for rotating the winding form (10', 10") and the expulsion member around a rotation axis during winding of the coils,; a first assembly (15, 18, 48, 49, 52) for supporting the winding form (10'10"); and translating the winding form (10', 10") towards and away with respect to the coil insertion tool; a second assembly (18, 31, 33, 34) for supporting the expulsion member and translating the expulsion member along a translation path, for pushing the branches of the wire coils; wherein the second assembly (18, 31, 33, 34) comprises means (18, 31, 30) for translating the expulsion member, after winding of the coils, through its predetermined maximum extent of travel along the guide bars without being obstructed by the first assembly and without being dependent of the position occupied by the winding form (10', 10") along the rotation axis.
A method for producing D- or L-2-hydroxy-4-methylmercaptobutanoic acid, comprising a step of reacting a mixture comprising 3-(methylthio)-propanal (methional), carbon dioxide, a decarboxylase (EC 4.1.1), its corresponding cofactor, an alcohol dehydrogenase (EC 1.1.1) and NADH or NADPH to form D- or L-2-hydroxy-4-methylmercaptobutanoic acid or a salt thereof, wherein the decarboxylase is selected from the group consisting of pyruvate decarboxylase Pdc1, which originates from Saccharomyces cerevisiae, phenylpyruvate decarboxylase Aro10, which originates from Saccharomyces cerevisiae, and branched chain decarboxylase KdcA, which originates from Lactococcus lactis, as well as mutants and variants of these decarboxylase having decarboxylase activity and wherein the alcohol dehydrogenase is D-hydroxyisocaproate dehydrogenase D-HicDH from Lactobacillus casei or any of its mutants and variants having alcohol dehydrogenase activity to yield D-2-hydroxy-4-methylmercapto-butanoic acid (D-MHA) or wherein the alcohol dehydrogenase is L-hydroxyisocaproate dehydrogenase L-HicDH from Lactobacillus confusus or any of its mutants and variants having alcohol dehydrogenase activity to yield L-2-hydroxy-4-methylmercapto-butanoic acid (L-MHA). wherein the decarboxylase is selected from the group consisting of pyruvate decarboxylase Pdc1, which originates from Saccharomyces cerevisiae, phenylpyruvate decarboxylase Aro10, which originates from Saccharomyces cerevisiae, and branched chain decarboxylase KdcA, which originates from Lactococcus lactis, as well as mutants and variants of these decarboxylase having decarboxylase activity and wherein the alcohol dehydrogenase is D-hydroxyisocaproate dehydrogenase D-HicDH from Lactobacillus casei or any of its mutants and variants having alcohol dehydrogenase activity to yield D-2-hydroxy-4-methylmercapto-butanoic acid (D-MHA) or wherein the alcohol dehydrogenase is L-hydroxyisocaproate dehydrogenase L-HicDH from Lactobacillus confusus or any of its mutants and variants having alcohol dehydrogenase activity to yield L-2-hydroxy-4-methylmercapto-butanoic acid (L-MHA).
An MZ type optical modulator comprising: a Si optical modulator including an input optical waveguide, two arm waveguides (212, 213) for branching and guiding light input from the input optical waveguide, an output optical waveguide for combining the light guided through the two arm waveguides (212, 213) and outputting the combined light, two signal electrodes (221, 222) for applying radio frequency modulation signals that are arranged in parallel to the two arm waveguides (212, 213) respectively, and a DC electrode for applying a bias voltage that is provided between the two signal electrodes (221, 222); and at least two ground electrodes arranged in parallel to the two signal electrodes (221, 222), characterized in that the radio frequency modulation signals input to the two signal electrodes (221, 222) are a pair of differential signals, the ground electrodes arranged on both sides of the Si optical modulators are connected to each other at a plurality of points by electrical multilayer interconnections. a Si optical modulator including an input optical waveguide, two arm waveguides (212, 213) for branching and guiding light input from the input optical waveguide, an output optical waveguide for combining the light guided through the two arm waveguides (212, 213) and outputting the combined light, two signal electrodes (221, 222) for applying radio frequency modulation signals that are arranged in parallel to the two arm waveguides (212, 213) respectively, and a DC electrode for applying a bias voltage that is provided between the two signal electrodes (221, 222); and at least two ground electrodes arranged in parallel to the two signal electrodes (221, 222), characterized in that the radio frequency modulation signals input to the two signal electrodes (221, 222) are a pair of differential signals, the ground electrodes arranged on both sides of the Si optical modulators are connected to each other at a plurality of points by electrical multilayer interconnections.
A method of sensing using a fibre-optic phase based sensor arrangement characterised in that the method comprises: providing a plurality of signals representative of the sensor arrangement response, said plurality of signals received from one or more sensors, and being at different sensitivities, determining a value of amplitude of the sensor arrangement response using at least one of said signals, and based on said determination, using one or more of said signals of different sensitivities to provide a sensed output wherein the highest sensitivity signal which is not subject to overscale is selected to be used. providing a plurality of signals representative of the sensor arrangement response, said plurality of signals received from one or more sensors, and being at different sensitivities, determining a value of amplitude of the sensor arrangement response using at least one of said signals, and based on said determination, using one or more of said signals of different sensitivities to provide a sensed output wherein the highest sensitivity signal which is not subject to overscale is selected to be used.
Device for applying labels on containers, which comprises a transport device that transports the containers to be labelled along a predefined transport path, and comprises a first pressing-on unit that presses the labels onto an outer wall of the containers after the arrangement of the labels on the outer wall of the containers, the first pressing-on unit being a brush device having a multiplicity of bristles that extend in the direction of the containers, wherein the first pressing-on unit, at least in a first partial region of the first pressing-on unit, is shorter, in the longitudinal direction of the containers, than the label to be applied, wherein the first partial region, as viewed in the direction of transport of the containers, is an initial region of the pressing-on unit and wherein the bristles are respectively arranged in bristle groups and the brush device extends in the longitudinal direction L of the containers first only in a partial region of the label to be applied in such a manner that by means of the first region only a middle region of the label is pressed on the container and wherein in a transition region the brush device expands in the longitudinal direction of the containers in order to finally cover at least the full length of the label in a second partial region, characterized in that the bristle groups are arranged in the first partial region, in the second partial region and also in the transition region in groups with respect to each other, wherein the groups in the first and second partial regions (6a, 6b) are essentially constructed in a rectangular manner.
A method of a User Equipment, UE, comprising: the UE is configured with a first Downlink, DL, Bandwidth Part, BWP, and a second DL BWP; the UE receives and/or monitors a Downlink Control Information, DCI, in a scheduling Control Resource Set, CORESET, in the first DL BWP, and for determining a size of the DCI for decoding, the UE determines whether a Transmission Configuration Indication, TCI, field is present in the DCI or not based on a parameter of the scheduling CORESET before the UE decodes the DCI successfully; and after the UE decodes successfully the DCI, the UE truncates or pads zero-bits to at least one field, preferably other than the TCI field, in the DCI based on a configuration of the second DL BWP, when a BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP; characterized by: after the UE decodes successfully the DCI, the UE determines whether the TCI field is present in the DCI or not based on the parameter of the scheduling CORESET in the first DL BWP regardless of the parameter of one or more CORESETs in the second DL BWP or the configuration of the second DL BWP, when the BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP. the UE is configured with a first Downlink, DL, Bandwidth Part, BWP, and a second DL BWP; the UE receives and/or monitors a Downlink Control Information, DCI, in a scheduling Control Resource Set, CORESET, in the first DL BWP, and for determining a size of the DCI for decoding, the UE determines whether a Transmission Configuration Indication, TCI, field is present in the DCI or not based on a parameter of the scheduling CORESET before the UE decodes the DCI successfully; and after the UE decodes successfully the DCI, the UE truncates or pads zero-bits to at least one field, preferably other than the TCI field, in the DCI based on a configuration of the second DL BWP, when a BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP; characterized by: after the UE decodes successfully the DCI, the UE determines whether the TCI field is present in the DCI or not based on the parameter of the scheduling CORESET in the first DL BWP regardless of the parameter of one or more CORESETs in the second DL BWP or the configuration of the second DL BWP, when the BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP.
Connecting means for inter-connecting adjacent pressure ring segments of a pressure ring assembly suitable for use in an electric arc furnace, the connecting means being characterised therein that it comprises two leg sections connected to one another by means of an intermediate bridge section spanning the length of the leg sections, and wherein the leg sections [61 are at least partially tapered relative to one another.
A method of manufacturing an article (1, 11) for forming an aerosol, the method comprising the steps of: a) providing a cover layer (2, 12) which comprises, defines or provides a mould surface for defining the periphery of an article (1, 11) for forming an aerosol; b) depositing a substance which is at least partially fluid and comprises aerosol-forming substrate into the mould surface; and c) causing or allowing the substance to at least partially solidify thereby to provide an article for forming an aerosol having a periphery formed from the cover layer, wherein the mould surface circumscribes the moulded aerosol-forming substrate. a) providing a cover layer (2, 12) which comprises, defines or provides a mould surface for defining the periphery of an article (1, 11) for forming an aerosol; b) depositing a substance which is at least partially fluid and comprises aerosol-forming substrate into the mould surface; and c) causing or allowing the substance to at least partially solidify thereby to provide an article for forming an aerosol having a periphery formed from the cover layer, wherein the mould surface circumscribes the moulded aerosol-forming substrate.