mhurhangee/ep-ind-claims huggingface dataset:
A method of making a vacuum insulated glass, VIG, unit, the method comprising: providing first and second glass substrates (502a, 502b) in substantially parallel, spaced apart relation to one another, a gap being defined between the first and second substrates (502a, 502b); disposing a material proximate to the first and/ or second glass substrates (502a, 502b), the material comprising at least a frit material and a coefficient of thermal expansion, CTE, material; and applying energy to the material so as to melt the material at a melting temperature, wherein the CTE material comprises elements that are perfectly, partially and/or substantially spherical in form, wherein the elements have an average diameter or major distance of between 70 and 90 microns, and wherein the frit material is formed from a base composition including: Ingredient Normalized Mole % vanadium oxide ∼45-50%, barium oxide ∼20-23%, and zinc oxide ∼19-22%. providing first and second glass substrates (502a, 502b) in substantially parallel, spaced apart relation to one another, a gap being defined between the first and second substrates (502a, 502b); disposing a material proximate to the first and/ or second glass substrates (502a, 502b), the material comprising at least a frit material and a coefficient of thermal expansion, CTE, material; and applying energy to the material so as to melt the material at a melting temperature, wherein the CTE material comprises elements that are perfectly, partially and/or substantially spherical in form, wherein the elements have an average diameter or major distance of between 70 and 90 microns, and wherein the frit material is formed from a base composition including: Ingredient Normalized Mole % vanadium oxide ∼45-50%, barium oxide ∼20-23%, and zinc oxide ∼19-22%.
A soft magnetic thermosetting adhesive film formed from a soft magnetic thermosetting composition comprising soft magnetic particles, acrylic resin, epoxy resin, phenol resin, and a thermosetting catalyst, wherein a total of the epoxy resin content and the phenol resin content is 20 parts by mass or more and 99 parts by mass or less relative to 100 parts by mass of the component consisting of resin component, thermosetting catalyst, and optional additive but not including soft magnetic particles and solvent, the phenol resin is at least one kind selected from the group of novolak-type phenol resin, resole-type phenol resin and polyoxystyrene, and the phenol resin is a curing agent for the epoxy resin. wherein a total of the epoxy resin content and the phenol resin content is 20 parts by mass or more and 99 parts by mass or less relative to 100 parts by mass of the component consisting of resin component, thermosetting catalyst, and optional additive but not including soft magnetic particles and solvent, the phenol resin is at least one kind selected from the group of novolak-type phenol resin, resole-type phenol resin and polyoxystyrene, and the phenol resin is a curing agent for the epoxy resin.
A device for containing radioisotopes comprising: a body defining at least one confining geometry comprising; an opening to allow fluid transfer in to said confining geometry; a cross-section dimension below the beta(+) or beta(-) range of a radioisotope, when containing the radioisotope; and wherein adjacent segments of the confining geometry are configured such that neighboring segments are isolated from the nearest neighbor segment such that no measurable kinetic positron energy transfer occurs between the segments when containing the radioisotope characterized in that the confining geometry further comprises a fluid, wherein said fluid has a surface tension capable of encapsulating a radioisotope. a body defining at least one confining geometry comprising; an opening to allow fluid transfer in to said confining geometry; a cross-section dimension below the beta(+) or beta(-) range of a radioisotope, when containing the radioisotope; and wherein adjacent segments of the confining geometry are configured such that neighboring segments are isolated from the nearest neighbor segment such that no measurable kinetic positron energy transfer occurs between the segments when containing the radioisotope characterized in that the confining geometry further comprises a fluid, wherein said fluid has a surface tension capable of encapsulating a radioisotope.
A liquid rocket engine oxidizer turbopump comprising: a housing with a liquid oxygen inlet and a liquid oxygen outlet; an impeller rotatable within the housing; and a forward bearing and an aft bearing to rotatably support the impeller within the housing, both the housing and the impeller being formed as a single-piece with the impeller trapped within the housing. a housing with a liquid oxygen inlet and a liquid oxygen outlet; an impeller rotatable within the housing; and a forward bearing and an aft bearing to rotatably support the impeller within the housing, both the housing and the impeller being formed as a single-piece with the impeller trapped within the housing.
A filtration system for a gas turbine engine, comprising: a holding frame; the holding frame comprising a positioning element extending therefrom; and a filtration unit for mounting within the holding frame; the filtration unit comprising an end cap (150, 160) and a positioning slot positioned about the end cap such that the positioning element extends through the positioning slot when the filtration unit is mounted within the holding frame, characterised in that the positioning element comprises a positioning rod and the positioning rod is positioned behind the filtration unit aligning with the positioning slot when the filtration unit is mounted within the holding frame. a holding frame; the holding frame comprising a positioning element extending therefrom; and a filtration unit for mounting within the holding frame; the filtration unit comprising an end cap (150, 160) and a positioning slot positioned about the end cap such that the positioning element extends through the positioning slot when the filtration unit is mounted within the holding frame, characterised in that the positioning element comprises a positioning rod and the positioning rod is positioned behind the filtration unit aligning with the positioning slot when the filtration unit is mounted within the holding frame.
Household cooking appliance having a cooking chamber and a door for closing the cooking chamber, wherein the door includes a first pane, a second pane arranged at a spacing from the first pane, a first door profile, a second door profile arranged at a spacing from the first door profile, and a sealing device that is arranged in a gap provided between the first pane and the second pane, in order to seal the gap, wherein the sealing device is fastened to the first door profile and the second door profile, characterised in that the sealing device is suspended in the first door profile and the second door profile in a pretensioned manner, the sealing device is resiliently expanded during the assembly thereof and this expansion is also constantly maintained after assembly of the sealing device.
A power controlling apparatus comprising: a secondary battery connected to an electrical device; a fuel cell connected to the electrical device and the secondary battery, the fuel cell having two non-generating modes comprising an idling mode and a halt mode, the fuel cell suspending generation of power while being supplied with fuel in the idling mode, the fuel cell stopping the generation of power without fuel supply in the halt mode; characterised in that it comprises: a remainder estimator to calculate a remaining number of starts representing the remaining number of available starts of the fuel cell; and a controller to control the fuel cell to be in one of the two non-generating modes during a non-charging mode of the secondary battery, based on the remaining number of starts calculated by the remainder estimator. a secondary battery connected to an electrical device; a fuel cell connected to the electrical device and the secondary battery, the fuel cell having two non-generating modes comprising an idling mode and a halt mode, the fuel cell suspending generation of power while being supplied with fuel in the idling mode, the fuel cell stopping the generation of power without fuel supply in the halt mode; a remainder estimator to calculate a remaining number of starts representing the remaining number of available starts of the fuel cell; and a controller to control the fuel cell to be in one of the two non-generating modes during a non-charging mode of the secondary battery, based on the remaining number of starts calculated by the remainder estimator.
A composition for neutron capture therapy, characterized in that the composition comprises: at least one nanodiamond particle and at least one neutron capture element, wherein the at least one neutron capture element is embedded into the at least one nanodiamond particle by using an ion implantation system.
An orthopaedic knee prosthesis system, comprising: a prosthetic knee component configured to be implanted into the distal end of a patient's femur and having medial and lateral condyle surfaces (12, 14), a first sleeve component including (i) a first end configured to be separately secured to the prosthetic knee component and (ii) a tapered section (49; L) extending from the first end to a second end positioned opposite the first end, and a second sleeve component including (i) a first end configured to be separately secured to the prosthetic knee component in place of the first sleeve component, (ii) a first tapered section (49A; L) extending distally from a second end positioned opposite the first end, and (iii) a second tapered section (49A; X) extending distally from the first tapered section, characterised in that the tapered section (49; L) of the first sleeve component and the first tapered section (49A; L) of the second sleeve component have a first outer geometry and the second tapered section (49A; X) has a second outer geometry different from the first outer geometry. a prosthetic knee component configured to be implanted into the distal end of a patient's femur and having medial and lateral condyle surfaces (12, 14), a first sleeve component including (i) a first end configured to be separately secured to the prosthetic knee component and (ii) a tapered section (49; L) extending from the first end to a second end positioned opposite the first end, and a second sleeve component including (i) a first end configured to be separately secured to the prosthetic knee component in place of the first sleeve component, (ii) a first tapered section (49A; L) extending distally from a second end positioned opposite the first end, and (iii) a second tapered section (49A; X) extending distally from the first tapered section, characterised in that the tapered section (49; L) of the first sleeve component and the first tapered section (49A; L) of the second sleeve component have a first outer geometry and the second tapered section (49A; X) has a second outer geometry different from the first outer geometry.
A computer implemented method for maintaining spatial stability of a sound field comprising: calculating balance gains for each of two or more microphone signals; calculating one or more signal values for each of the two or more microphone signals; calculating a predicted echo for a received audio signal; calculating a pair-wise echo spectral coherence between the predicted echo and each of the two or more microphone signals; calculating a pair-wise spectral coherence between each of the two or more microphone signals; and gain adjusting the two or more microphone signals responsive to the calculated balance gains, the one or more signal values, the echo spectral coherence and the pair-wise spectral coherence for each of the two or more microphone signals; and where the one or more signal values is characterized as a background noise estimate or signal gains associated with an echo cancellation or noise reduction processes.. calculating balance gains for each of two or more microphone signals; calculating one or more signal values for each of the two or more microphone signals; calculating a predicted echo for a received audio signal; calculating a pair-wise echo spectral coherence between the predicted echo and each of the two or more microphone signals; calculating a pair-wise spectral coherence between each of the two or more microphone signals; and gain adjusting the two or more microphone signals responsive to the calculated balance gains, the one or more signal values, the echo spectral coherence and the pair-wise spectral coherence for each of the two or more microphone signals; and where the one or more signal values is characterized as a background noise estimate or signal gains associated with an echo cancellation or noise reduction processes..
In vitro use of a panel of biomarkers in a body fluid sample for diagnosing and/or monitoring a cancer, wherein the biomarkers comprise histone isoform H3.1 and Interleukin-6 (IL-6).
A method for preparing a steamed cake donut with a total fat content comprised between 7 and 18%, said method comprising the steps of providing a batter, forming a donut piece out of said batter, and steaming the donut piece.
An information processing apparatus comprising: a control device (4, 30, 51) configured to: generate display data for display on a display unit, including a main image for display in a first area of a display area and a list of candidate images for display in a second area of the display area at a same time the main image is displayed in the first area, wherein the candidate images are extracted from and represent respective objects in the main image; and receive, from an operation unit having an input function of receiving a user operation and being configured to send a signal corresponding to the input operation to the control unit (4, 30, 51), an input from a user to select one candidate image from the list of candidate images, and generate in dependence on the selection of the one candidate image an indicator (203, 205) indicating as an emphasis or a mark the portion in the first area corresponding to the candidate image selected from the list of candidate images, characterized in that the control device (4, 30, 51) is further configured to: end the display of the list of candidate images displayed in the second display area when the one candidate image from the list of candidate images is selected by the input from the user. a control device (4, 30, 51) configured to: generate display data for display on a display unit, including a main image for display in a first area of a display area and a list of candidate images for display in a second area of the display area at a same time the main image is displayed in the first area, wherein the candidate images are extracted from and represent respective objects in the main image; and receive, from an operation unit having an input function of receiving a user operation and being configured to send a signal corresponding to the input operation to the control unit (4, 30, 51), an input from a user to select one candidate image from the list of candidate images, and generate in dependence on the selection of the one candidate image an indicator (203, 205) indicating as an emphasis or a mark the portion in the first area corresponding to the candidate image selected from the list of candidate images, characterized in that the control device (4, 30, 51) is further configured to: end the display of the list of candidate images displayed in the second display area when the one candidate image from the list of candidate images is selected by the input from the user.
A method for selecting one of a plurality of modulators having different modulation orders to modulate a sub-packet being a codeword output from an encoder that receives an encoder packet,EP, comprising the steps of: calculating a Modulation order Product code Rate, MPR, being a ratio of an EP size to a number of payload modulation symbols; comparing the MPR with a threshold; and selecting one of the plurality of modulators according to the comparison result. calculating a Modulation order Product code Rate, MPR, being a ratio of an EP size to a number of payload modulation symbols; comparing the MPR with a threshold; and selecting one of the plurality of modulators according to the comparison result.
A method for identifying a user and providing an in-place personalized interactive display, the method comprising: detecting entry of a user's palm into a palm imaging area and capturing, via a first imaging system, an image of the user's palm and detecting, by a controller using the captured image, one or more unique characteristic features of the user's palm; obtaining, by the controller, an identity of the user via the one or more unique characteristic features of the user's palm and a database containing mappings between detectable unique palm characteristic features and stored user identities; retrieving, by the controller, user-specific interactive content as a function of the identity of the user; projecting, by the controller, via a second imaging system, the user-specific interactive content onto the user's palm; and detecting, by the controller, via a third imaging system, a user's interaction with the projected user-specific interactive content on the user's palm. detecting entry of a user's palm into a palm imaging area and capturing, via a first imaging system, an image of the user's palm and detecting, by a controller using the captured image, one or more unique characteristic features of the user's palm; obtaining, by the controller, an identity of the user via the one or more unique characteristic features of the user's palm and a database containing mappings between detectable unique palm characteristic features and stored user identities; retrieving, by the controller, user-specific interactive content as a function of the identity of the user; projecting, by the controller, via a second imaging system, the user-specific interactive content onto the user's palm; and detecting, by the controller, via a third imaging system, a user's interaction with the projected user-specific interactive content on the user's palm.
A process for manufacturing a composition for promoting cell growth, tissue repair and/or organ regeneration in vivo, comprising: a) heating a mixture of an fatty acid-containing oil and huangqin at a weight ratio between 70:30 and 98:2 at a temperature between 150-190°C for 30-120 min; b) filtering the mixture to obtain an oil filtrate; c) cooling the oil filtrate to below 150°C; d) mixing a sterol compound with the oil filtrate of step b) at a weight ratio between 1:99-20:80; e) heating the mixture of step d) with stirring at a temperature between 100-150°C for 20-60 min; and f) heating beeswax to 70-80°C; g) mixing beeswax with the mixture of step d) at a weight ratio between 1:99-20:80, preferably 10:90, and stirring at a temperature of 100-150°C for 10-60min; and h) cooling the mixture of step (g) to 20-25°C. a) heating a mixture of an fatty acid-containing oil and huangqin at a weight ratio between 70:30 and 98:2 at a temperature between 150-190°C for 30-120 min; b) filtering the mixture to obtain an oil filtrate; c) cooling the oil filtrate to below 150°C; d) mixing a sterol compound with the oil filtrate of step b) at a weight ratio between 1:99-20:80; e) heating the mixture of step d) with stirring at a temperature between 100-150°C for 20-60 min; and f) heating beeswax to 70-80°C; g) mixing beeswax with the mixture of step d) at a weight ratio between 1:99-20:80, preferably 10:90, and stirring at a temperature of 100-150°C for 10-60min; and h) cooling the mixture of step (g) to 20-25°C.
Method for producing sheet metal components, the method comprising: - preshaping a workpiece to form a preshaped component (2, 3), wherein material which is excess at least in regions is introduced into the preshaped component (2, 3); and - calibrating the preshaped component (2, 3) to form an at least partially finally shaped component (2', 3') using the excess material, wherein the preshaped component (2, 3) is compressed at least in sections; characterized - in that different regions (2a, 2b, 2c) of the preshaped component (2, 3) are calibrated in a time-staggered manner. - preshaping a workpiece to form a preshaped component (2, 3), wherein material which is excess at least in regions is introduced into the preshaped component (2, 3); and - calibrating the preshaped component (2, 3) to form an at least partially finally shaped component (2', 3') using the excess material, wherein the preshaped component (2, 3) is compressed at least in sections; characterized - in that different regions (2a, 2b, 2c) of the preshaped component (2, 3) are calibrated in a time-staggered manner.
An assembly for positioning a plurality of thermal dissipating elements on an integrated circuit, IC, die comprising: a thermal dissipating element placement assembly comprising: a plate body comprising a first plate and a second plate, the first plate having a first plurality of apertures extending through top and bottom surfaces of the first plate and the second plate having a second plurality of apertures extending through top and bottom surfaces of the second plate, each of the second plurality of apertures having a second diameter that is different than a first diameter of each of the first plurality of apertures, the second plurality of apertures being aligned with the first plurality of apertures, and a vacuum pickup assembly removably coupled to the thermal dissipating element placement assembly, the vacuum pickup assembly providing a suction force that holds the plurality of thermal dissipating elements within the first or second plurality of apertures in the plate body and against a surface of the plate body. a plate body comprising a first plate and a second plate, the first plate having a first plurality of apertures extending through top and bottom surfaces of the first plate and the second plate having a second plurality of apertures extending through top and bottom surfaces of the second plate, each of the second plurality of apertures having a second diameter that is different than a first diameter of each of the first plurality of apertures, the second plurality of apertures being aligned with the first plurality of apertures, and a vacuum pickup assembly removably coupled to the thermal dissipating element placement assembly, the vacuum pickup assembly providing a suction force that holds the plurality of thermal dissipating elements within the first or second plurality of apertures in the plate body and against a surface of the plate body.