mhurhangee/ep-ind-claims huggingface dataset:
A wellscreen, comprising: a base pipe defining one or more perforations therein; a first section of screen disposed on the base pipe and screening fluid flow through the one or more perforations; and a first end ring (100;100';200;200') disposed on a first end of the first section, the first end ring (100;100';200;200') having at least two split ring components (110;150;210;250) mating together around the first end and the base pipe, wherein a first (150;250) of the at least two split ring components (110;150;210;250) comprises male edges (152;252), and wherein a second (110;210) of the at least two split ring components (110;150;210;250) comprises female edges (112;212) mating with the male edges (152;252). a base pipe defining one or more perforations therein; a first section of screen disposed on the base pipe and screening fluid flow through the one or more perforations; and a first end ring (100;100';200;200') disposed on a first end of the first section, the first end ring (100;100';200;200') having at least two split ring components (110;150;210;250) mating together around the first end and the base pipe,
An inflatable penile prosthesis comprising: a fluid reservoir configured to hold fluid; an inflatable member; and a pump assembly (106; 206) configured to transfer the fluid between the fluid reservoir and the inflatable member, the pump assembly (106; 206) including a pump bulb (108; 208), a valve body (110; 210), a push valve (124; 224) movably coupled to the valve body (110; 210), a first fluid port configured to be fluidly coupled to the fluid reservoir, and a second fluid port configured to be fluidly coupled to the inflatable member, the push valve including a movable valve element (140; 240) configured to move between an inflation position and a deflation position within a main bore of the valve body (110; 210), the pump assembly (106; 206) including an anti-auto inflate valve disposed within a post area of the valve body (110, 210), the movable valve element (140; 240) in the inflation position defining a fluid passageway through the main bore to transfer fluid from the pump bulb (108; 208) to the second fluid port, the movable valve element (140; 240), when moved to the deflation position, configured to change the fluid passageway through the main bore, to transfer fluid from the second fluid port to the main bore, where the movable valve element (140; 240) causes the fluid to flow into the post area, such that the fluid flows through the anti-auto inflate valve and into the first fluid port, such that the pump bulb (108; 208) is bypassed. a fluid reservoir configured to hold fluid; an inflatable member; and a pump assembly (106; 206) configured to transfer the fluid between the fluid reservoir and the inflatable member, the pump assembly (106; 206) including a pump bulb (108; 208), a valve body (110; 210), a push valve (124; 224) movably coupled to the valve body (110; 210), a first fluid port configured to be fluidly coupled to the fluid reservoir, and a second fluid port configured to be fluidly coupled to the inflatable member, the push valve including a movable valve element (140; 240) configured to move between an inflation position and a deflation position within a main bore of the valve body (110; 210), the pump assembly (106; 206) including an anti-auto inflate valve disposed within a post area of the valve body (110, 210), the movable valve element (140; 240) in the inflation position defining a fluid passageway through the main bore to transfer fluid from the pump bulb (108; 208) to the second fluid port, the movable valve element (140; 240), when moved to the deflation position, configured to change the fluid passageway through the main bore, to transfer fluid from the second fluid port to the main bore, where the movable valve element (140; 240) causes the fluid to flow into the post area, such that the fluid flows through the anti-auto inflate valve and into the first fluid port, such that the pump bulb (108; 208) is bypassed.
A maintenance end point MEP configuration method, comprising: receiving a continuity check message CCM from a peer device; parsing the CCM message to acquire information about the peer device, wherein the information about the peer device comprises: a maintenance domain MD level, a maintenance association identifier MA ID, and a CCM transmission interval of the peer device; acquiring information about a port receiving the CCM message, wherein the information about the port comprises: identifier information of the port receiving the CCM message and a virtual local area network tag VLAN tag of the CCM message; determining whether a MEP configuration to be completed according to the information about the peer device and the information about the port conflicts with existing configuration; and and if the MEP configuration to be completed according to the information about the peer device and the information about the port does not conflict with the existing configuration, completing MEP configuration according to the information about the peer device and the information about the port. receiving a continuity check message CCM from a peer device; parsing the CCM message to acquire information about the peer device, wherein the information about the peer device comprises: a maintenance domain MD level, a maintenance association identifier MA ID, and a CCM transmission interval of the peer device; acquiring information about a port receiving the CCM message, wherein the information about the port comprises: identifier information of the port receiving the CCM message and a virtual local area network tag VLAN tag of the CCM message; determining whether a MEP configuration to be completed according to the information about the peer device and the information about the port conflicts with existing configuration; and and if the MEP configuration to be completed according to the information about the peer device and the information about the port does not conflict with the existing configuration, completing MEP configuration according to the information about the peer device and the information about the port.
Modular fume cupboard, in particular for laboratory regions, comprising a housing that surrounds a space and has side walls and a top wall, wherein at least one of the side walls comprises a window slide, wherein the walls comprise profile elements (130, 140), between which plate elements are detachably arranged, wherein at least one of the profile elements (130, 140) is configured as a multi-part profile arrangement in order to form a channel which serves for receiving operating elements of the fume cupboard, and wherein at least one side wall is configured such that a further fume cupboard can be arranged thereon in such a way that a space surrounded by the two fume cupboards results.
A non-metallic flexible pipe, sequentially comprising, from the inside to the outside, an inner liner, a pressure-bearing layer, an isolation layer, a tensile layer, a functional layer, and a protective layer, with flexible bonding being between two adjacent layers, wherein the material of the inner liner is a thermoplastic polymer, the material of the pressure-bearing layer is a fiber-reinforced resin-based composite, the material of the isolation layer is a thermoplastic polymer, the material of the tensile layer is a resin-reinforced fiber, at least one of an optical fiber, a cable, a tracing ribbon, a pipe for conveying a heat transfer medium, a pressure sensor, and a temperature sensor is provided in the functional layer, and the material of the protective layer is a thermoplastic polymer.
A network authentication system, comprising: user equipment, a network authentication network element, and a slice authentication network element, wherein the user equipment is configured to send an access request to the network authentication network element, wherein the access request carries identification information of the user equipment; the network authentication network element is configured to: receive the access request; verify whether some or all of the identification information is valid; and if some or all of the identification information is valid, determine, based on the some or all of the identification information that is valid, a slice authentication network element corresponding to the user equipment, and send the some or all of the identification information to the slice authentication network element corresponding to the user equipment; the slice authentication network element is configured to: receive the some or all of the identification information sent by the network authentication network element, generate authentication data for the user equipment based on the some or all of the identification information, and initiate a user authentication request to the user equipment by using the authentication data; and the user equipment is further configured to: receive the user authentication request initiated by the slice authentication network element, and respond to the user authentication request.
A single-use valve for a bioprocess liquid apparatus, the single-use valve comprising: a first tubular section, a second tubular section and a third tubular section, each tubular section (101, 102, 103) having a respective first end (121, 131, 141) and a respective second end (122, 132, 142), wherein the tubular sections (101, 102, 103) are joined together at their respective second end (122, 132, 142), and wherein each respective first end (121, 131, 141) of each tubular section (101, 102, 103) comprises a respective aseptic connector (204, 214), valve seat means arranged at least at the respective second end (122, 132) inside the first tubular section and inside the second tubular section, a plunger arrangement inside the single-use valve, the plunger arrangement being configured to selectively interact with the valve seat means to close and open at least the first tubular section and the second tubular section in response to a magnetic field provided by a first solenoid arrangement arranged at the second end of the first tubular section and a magnetic field provided by a second solenoid arrangement arranged at the second end of the second tubular section. a first tubular section, a second tubular section and a third tubular section, each tubular section (101, 102, 103) having a respective first end (121, 131, 141) and a respective second end (122, 132, 142), wherein the tubular sections (101, 102, 103) are joined together at their respective second end (122, 132, 142), and wherein each respective first end (121, 131, 141) of each tubular section (101, 102, 103) comprises a respective aseptic connector (204, 214), valve seat means arranged at least at the respective second end (122, 132) inside the first tubular section and inside the second tubular section, a plunger arrangement inside the single-use valve, the plunger arrangement being configured to selectively interact with the valve seat means to close and open at least the first tubular section and the second tubular section in response to a magnetic field provided by a first solenoid arrangement arranged at the second end of the first tubular section and a magnetic field provided by a second solenoid arrangement arranged at the second end of the second tubular section.
A tablet comprising a pharmaceutically acceptable composition comprising: intragranular components: (a) 35-70 weight percent neratinib maleate; (b) 15-65 weight percent of one or more fillers; (c) 0-8 weight percent of one or more disintegrants; (d) 0.2-8 weight percent of one or more glidants; and (e) 5-15 weight percent of one or more surface modifying agents; and extragranular components: (f) 1-25 weight percent of one or more fillers; (g) 0-8 weight percent of one or more disintegrants; and (h) 0.1 -3 weight percent of one or more lubricants. intragranular components: (a) 35-70 weight percent neratinib maleate; (b) 15-65 weight percent of one or more fillers; (c) 0-8 weight percent of one or more disintegrants; (d) 0.2-8 weight percent of one or more glidants; and (e) 5-15 weight percent of one or more surface modifying agents; (a) 35-70 weight percent neratinib maleate; (b) 15-65 weight percent of one or more fillers; (c) 0-8 weight percent of one or more disintegrants; (d) 0.2-8 weight percent of one or more glidants; and (e) 5-15 weight percent of one or more surface modifying agents; and extragranular components: (f) 1-25 weight percent of one or more fillers; (g) 0-8 weight percent of one or more disintegrants; and (h) 0.1 -3 weight percent of one or more lubricants. (f) 1-25 weight percent of one or more fillers; (g) 0-8 weight percent of one or more disintegrants; and (h) 0.1 -3 weight percent of one or more lubricants.
A composition comprising a plurality of distinct, non-overlapping oncofetal antigen fragments containing epitopes that specifically stimulate T cytotoxic lymphocytes in a mammal, and a carrier, wherein said composition does not comprise any OFA epitope that specifically stimulates T suppressor cells.
Insulation assembly for an HVDC component, especially a transformer or an inductor, consisting of a sequence of wall-like solid barriers (26, 27) made of a cellulose material, between which are provided intermediate spaces for a transformer oil and which form an insulation gap together with the transformer oil, characterized in that the solid barriers (26, 27) take the form of a composite consisting of the treated cellulose material, • in which particles having a lower specific resistivity compared to the specific resistivity ρ p of the untreated cellulose material are distributed in a concentration above the percolation threshold and/or • in which a coherent network of a conductive polymer having a lower specific resistivity compared to the specific resistivity ρ p of the untreated cellulose material permeates the composite, and in that the wall thickness of the solid barriers (26, 27) is reduced by at least 25% compared to the wall thickness required in the case of use of the untreated cellulose material in question in place of the composite. • in which particles having a lower specific resistivity compared to the specific resistivity ρ p of the untreated cellulose material are distributed in a concentration above the percolation threshold and/or • in which a coherent network of a conductive polymer having a lower specific resistivity compared to the specific resistivity ρ p of the untreated cellulose material permeates the composite,
Barrier skirt comprising a number of identically shaped struts which are suspended in a pivotable manner, and at a distance apart from one another, between a barrier boom, which is articulated on a barrier housing and can be pivoted in a vertical plane, and a rail running parallel to the barrier boom, characterized in that that end of the struts (4, 4') by way of which they are connected in a pivotable manner to a guide rail (6, 6') running parallel to the barrier boom, or to a guide groove on the barrier boom, is designed in the form of an angled end.
A foamable composition comprising a) foamable resin, comprising foamable polystyrene; and (b) a blowing agent comprising (i) transHFO-1234ze in an amount greater than 3% by weight to less than 8% by weight of the foamable composition; and (ii) greater than 3% by weight of trans-1,1,1-trifluoro-3-chloropropene (transHCFO-1233zd) in the foamable composition, provided that concentration of component (i) and (ii) together in the foamable composition is not greater than 15% of the foamable composition.
A method for producing acetic acid, comprising at least one step selected from a step that satisfies the following operating conditions (i) and a step that satisfies the following operating conditions (ii) in an acetic acid production process: (i) operating conditions involving a hydrogen partial pressure of not more than 150 kPa (absolute pressure), a carbon dioxide partial pressure of less than 70 kPa (absolute pressure), and an operating temperature of more than 175°C; and (ii) operating conditions involving a hydrogen partial pressure of not more than 5 kPa (absolute pressure), a carbon dioxide partial pressure of not more than 12 kPa (absolute pressure), and an operating temperature of more than 100°C. (i) operating conditions involving a hydrogen partial pressure of not more than 150 kPa (absolute pressure), a carbon dioxide partial pressure of less than 70 kPa (absolute pressure), and an operating temperature of more than 175°C; and (ii) operating conditions involving a hydrogen partial pressure of not more than 5 kPa (absolute pressure), a carbon dioxide partial pressure of not more than 12 kPa (absolute pressure), and an operating temperature of more than 100°C.
An implantable device comprising at least one electrode (10, 20, 30, 40, 50, 60, 110) for carrying an electrical signal, characterized in that said electrode comprises at least one portion (12, 22, 32, 42, 52, 62) for directly contacting a biological cell or tissue, wherein said portion (12, 22, 32, 42, 52, 62) is made of Indium nitride, InN, so that said portion is electrically conductive or semiconductive and so that cell adhesion on said portion is inhibited.
Device for closing a hole in the ground, comprising: - an edge around a hole - a plate part for closing the hole in said edge of said device; - pressing means for at least partially compensating the mass of the plate part; characterized in that there is arranged in the edge of the hole of said device an inclined surface which is adapted to guide the plate part by sliding or rolling from a position in which the plate part substantially closes the hole, over the edge of the hole to a position at least partially adjacent to the hole for removal of said plate part from the hole in the ground. - an edge around a hole - a plate part for closing the hole in said edge of said device; - pressing means for at least partially compensating the mass of the plate part; characterized in that there is arranged in the edge of the hole of said device an inclined surface which is adapted to guide the plate part by sliding or rolling from a position in which the plate part substantially closes the hole, over the edge of the hole to a position at least partially adjacent to the hole for removal of said plate part from the hole in the ground.
Method for detecting wear on at least one cable sheave of a cable car system having a hoisting cable, which is guided over the at least one cable sheave, and having at least one cable sensor which is arranged in a known position with respect to the cable sheave and by means of which the distance between the hoisting cable and the cable sensor is detected, characterized in that the distance is measured when the cable car system is at a standstill and the wear on the at least one cable sheave is deduced from the distance measured at a standstill.
A computer-implemented method for characterizing a classifier configured to generate a classification label for digital microscope slide image, comprising the steps of: a) acquiring a set of slide images, each composed of patches of pixel image data, which are in focus and which are associated with ground truth labels for each image patch; b) defining a set of out-of-focus degrees, and for each degree: 1) applying a corresponding amount of synthetic out-of-focus to each of the patches of an image in the set of slide images; 2) computing a classification error for each patch in the image; 3) computing a mean error across all of the patches in the image; c) storing the mean error computed in step b) 3) for all of the degrees defined in step b) as an expected error for the classifier for the out-of-focus degrees defined in step b); d) repeating steps b1), b2), b3), and c) for each of the slide images in the set. a) acquiring a set of slide images, each composed of patches of pixel image data, which are in focus and which are associated with ground truth labels for each image patch; b) defining a set of out-of-focus degrees, and for each degree: 1) applying a corresponding amount of synthetic out-of-focus to each of the patches of an image in the set of slide images; 2) computing a classification error for each patch in the image; 3) computing a mean error across all of the patches in the image; 1) applying a corresponding amount of synthetic out-of-focus to each of the patches of an image in the set of slide images; 2) computing a classification error for each patch in the image; 3) computing a mean error across all of the patches in the image; c) storing the mean error computed in step b) 3) for all of the degrees defined in step b) as an expected error for the classifier for the out-of-focus degrees defined in step b); d) repeating steps b1), b2), b3), and c) for each of the slide images in the set.
A floor treatment appliance with a replaceable change component, a detection device for detecting an actual parameter that is influenced by wear of the change component, an evaluation device for determining a degree of wear of the change component based on the actual parameter and a communication device for communicating information concerning a required replacement of the change component to an external terminal that is communicatively linked to the floor treatment appliance, wherein the change component comprises a floor treatment element for mechanically acting upon a floor surface to be treated, characterized in that the evaluation device is configured for calculating an average value of the actual parameter detected by the detection device referred to a defined time period of at least one hour, for comparing the average value with a defined reference value and for determining the degree of wear of the change component in dependence on the result of the comparison.