mhurhangee/ep-ind-claims huggingface dataset:
A screen basket comprising: a plurality of profiled bars (12, 56, 64) generally aligned along a longitudinal axis so as to define a slotted cylindrical wall having an inner side and an outer side extending between two longitudinal ends; each of the profiled bars (12, 56, 64) having a radial profiled portion and a radial locking portion (28, 58, 70); and a plurality of support ring assemblies (22, 102, 202, 302, 402), comprising respective first support rings (30, 32, 104, 106), each mounted to at least some of the plurality of profiled bars substantially transversally therefrom, for assembling the plurality of profiled bars (12, 56, 64) into the slotted cylindrical wall; each of the plurality of first support rings (30, 32) including a plurality of grooves; each of the plurality of grooves being configured and sized for complementary receiving the radial locking portion (28, 58, 70) of a respective one of the profiled bars; characterized in that the plurality of first support rings are assembled from a plurality of sections; and at least one of the support ring assemblies further includes a movable support or pushing disk (508, 608), the disk having an aperture (506, 614) therein, and a rod or pin arranged to be inserted into the aperture and to move the movable disk to force contact between the locking portions and the grooves. a plurality of profiled bars (12, 56, 64) generally aligned along a longitudinal axis so as to define a slotted cylindrical wall having an inner side and an outer side extending between two longitudinal ends; each of the profiled bars (12, 56, 64) having a radial profiled portion and a radial locking portion (28, 58, 70); and a plurality of support ring assemblies (22, 102, 202, 302, 402), comprising respective first support rings (30, 32, 104, 106), each mounted to at least some of the plurality of profiled bars substantially transversally therefrom, for assembling the plurality of profiled bars (12, 56, 64) into the slotted cylindrical wall; each of the plurality of first support rings (30, 32) including a plurality of grooves; each of the plurality of grooves being configured and sized for complementary receiving the radial locking portion (28, 58, 70) of a respective one of the profiled bars; characterized in that the plurality of first support rings are assembled from a plurality of sections; and at least one of the support ring assemblies further includes a movable support or pushing disk (508, 608), the disk having an aperture (506, 614) therein, and a rod or pin arranged to be inserted into the aperture and to move the movable disk to force contact between the locking portions and the grooves.
Valve for engaging with a tube to be used in an enteral feeding or infusion pump adapted to feed a fluid to a patient, the valve comprising: a first component being adapted to be connected to a first tube and having a first cavity and a sealing element, a second component being adapted to be connected to the first component and a second tube, the second component having a second cavity, a valve seat and a flexible portion, wherein the sealing element of the first component and the valve seat of the second component are sealingly engageable for controlling fluid flow between the first and the second cavity, wherein applying an axial tension force between the first component and the second component will bring the valve into an open position, characterized in that the flexible portion comprises at least one bellows having a spring function in the axial direction, and a housing is provided at least partially covering the second component, wherein the housing is configured to operate as a stop limiting the movement of the second component. a first component being adapted to be connected to a first tube and having a first cavity and a sealing element, a second component being adapted to be connected to the first component and a second tube, the second component having a second cavity, a valve seat and a flexible portion, wherein the sealing element of the first component and the valve seat of the second component are sealingly engageable for controlling fluid flow between the first and the second cavity, wherein applying an axial tension force between the first component and the second component will bring the valve into an open position, characterized in that the flexible portion comprises at least one bellows having a spring function in the axial direction, and a housing is provided at least partially covering the second component, wherein the housing is configured to operate as a stop limiting the movement of the second component.
A toner comprising toner particles each containing a binding resin and a charge controlling agent, wherein the charge controlling agent (i) comprises a compound represented by the following formula, and (ii) has peaks at 15.000°±0.150° and 20.100°±0.150° in CuKα X-ray diffraction spectrum, measured as indicated in the description, obtained in 2θ range of 10° or more to 40° or less where θ represents Bragg angle, one of the peaks being a peak having a maximum intensity in the 2θ range and the other being a peak having a second maximum intensity in the 2θ range, wherein in N 2 molecule adsorption-desorption isotherm of the charge controlling agent at a temperature of 77 K, measured as indicated in the description, an adsorption amount M1 of an adsorption process when a relative pressure is 0.4 is 3.0 cm 3 /g or more and 8.0 cm 3 /g or less, and a difference (M2-M1) between the M1 and an adsorption amount M2 (cm 3 /g) of a desorption process when the relative pressure is 0.4 is 0.4 cm 3 /g or less. the charge controlling agent (i) comprises a compound represented by the following formula, and (ii) has peaks at 15.000°±0.150° and 20.100°±0.150° in CuKα X-ray diffraction spectrum, measured as indicated in the description, obtained in 2θ range of 10° or more to 40° or less where θ represents Bragg angle, one of the peaks being a peak having a maximum intensity in the 2θ range and the other being a peak having a second maximum intensity in the 2θ range, (i) comprises a compound represented by the following formula, and (ii) has peaks at 15.000°±0.150° and 20.100°±0.150° in CuKα X-ray diffraction spectrum, measured as indicated in the description, obtained in 2θ range of 10° or more to 40° or less where θ represents Bragg angle, one of the peaks being a peak having a maximum intensity in the 2θ range and the other being a peak having a second maximum intensity in the 2θ range, wherein in N 2 molecule adsorption-desorption isotherm of the charge controlling agent at a temperature of 77 K, measured as indicated in the description, an adsorption amount M1 of an adsorption process when a relative pressure is 0.4 is 3.0 cm 3 /g or more and 8.0 cm 3 /g or less, and a difference (M2-M1) between the M1 and an adsorption amount M2 (cm 3 /g) of a desorption process when the relative pressure is 0.4 is 0.4 cm 3 /g or less.
A communication apparatus (10, 10Tx) comprising a control unit adapted to perform control to: use an available frequency channel to transmit a data frame to another communication apparatus; add, to the data frame, available channel information regarding a frequency channel available for transmitting and receiving a frame; monitor a usage status of a frequency channel different from the frequency channel used for transmitting the data frame; specify an available frequency channel on a basis of monitoring results; include the available channel information regarding the available frequency channel that has been specified, in the data frame; and wait for a confirmation signal used for confirmation of reception of the data frame as a signal transmitted from the another communication apparatus on the available frequency channel. use an available frequency channel to transmit a data frame to another communication apparatus; add, to the data frame, available channel information regarding a frequency channel available for transmitting and receiving a frame; monitor a usage status of a frequency channel different from the frequency channel used for transmitting the data frame; specify an available frequency channel on a basis of monitoring results; include the available channel information regarding the available frequency channel that has been specified, in the data frame; and wait for a confirmation signal used for confirmation of reception of the data frame as a signal transmitted from the another communication apparatus on the available frequency channel.
Valve for use in a coolant flow, comprising: - a valve housing with at least one inlet and at least one outlet; - a valve body which is received rotatably by the valve housing, wherein the coolant flow between the inlet and outlet varies depending on the rotary position of the valve body; - an actuator with a shaft for rotating the valve body; and - a fail-safe mechanism which can be pretensioned rotationally; wherein the valve body is in rotational engagement with an axially moveable coupling element, via which the valve body is releasably connected indirectly to the actuator shaft, wherein in the event of a fault, the valve body can be decoupled from the actuator shaft by an axial movement of the coupling element, wherein the fail-safe mechanism is adapted to come into rotational engagement with the coupling element as a result of the axial movement of the coupling element, in order to rotate the valve body to a predefined fail-safe position, characterized in that the coupling element has a cylinder portion, in the outer periphery of which at least one groove (41, 42) is formed which extends in the peripheral direction of the cylinder portion and in which a carrier (51, 52) of the fail-safe mechanism engages and which is limited in the peripheral direction at a first end by a pretension stop and at a second end by a further stop, wherein preferably two grooves (41, 42) are formed in the cylinder portion which are offset to each other in the axial and in the peripheral direction and in each of which a carrier (52, 52) engages. - a valve housing with at least one inlet and at least one outlet; - a valve body which is received rotatably by the valve housing, wherein the coolant flow between the inlet and outlet varies depending on the rotary position of the valve body; - an actuator with a shaft for rotating the valve body; and - a fail-safe mechanism which can be pretensioned rotationally; wherein
An intermediate casing for a turbine engine, comprising at least one central hub and one shroud which are positioned concentrically, and mutually mechanically connected by structural arms, characterized in that it comprises at least one sealing part attached between the shroud and one structural arm, with the sealing part including at least one metal core and one seal, with the sealing part including an upper coating in contact with the arm and/or a lower coating in contact with the shroud.
A method for obtaining information on uterine body cancer comprising the steps of: preparing a DNA sample from a biological sample collected from a subject; analyzing methylation status of a CpG site located in a promoter region of TMCO1 gene in the DNA sample obtained in the preparing step; and obtaining information on uterine body cancer in the subject based on an analysis result obtained in the analyzing step, wherein the base sequence in the promoter region of TMCO1 gene is SEQ ID NO: 1. preparing a DNA sample from a biological sample collected from a subject; analyzing methylation status of a CpG site located in a promoter region of TMCO1 gene in the DNA sample obtained in the preparing step; and obtaining information on uterine body cancer in the subject based on an analysis result obtained in the analyzing step, wherein the base sequence in the promoter region of TMCO1 gene is SEQ ID NO: 1.
Method for heating, in particular of highly viscous products, where the product is pre-heated to a first temperature in a first step with at least one product/water heat exchanger section with water as the heating medium, wherein the water cools down, is further heated to a second temperature in a second step with at least one product/product heat exchanger section with the product as a heating medium, wherein the product serving as heating medium is cooled down, is further heated to a third temperature in a third step with at least one product/water heat exchanger section with water as the heating medium, wherein the water cools down and wherein the heated product is then recirculated as heating medium for heating the product in the second step.
An electroplating solution comprising: i) x molar parts Cu ions; ii) y molar parts Sn ions; iii) z molar parts Zn ions; and iv) m molar parts 1-methionine; wherein x+y+z =100 and x is between 52 and 77, y is between 22 and 48, and z is between 1 and 9; and wherein m is between 1.6 and 6.0 times x. i) x molar parts Cu ions; ii) y molar parts Sn ions; iii) z molar parts Zn ions; and iv) m molar parts 1-methionine;
A connector suitable for being placed between battery modules, comprising: first and second connecting pieces (21, 22), the first connecting piece suitable for being electrically connected to an output end of a first battery module, the second connecting piece suitable for being electrically connected to an output end of a second battery module adjacent to the first battery module, and the first connecting piece and the second connecting piece being electrically connected to each other so as to form an electrically-connecting part therebetween; a clamping unit configured to clamp the electrically-connecting part formed between the first connecting piece and the second connecting piece; and characterized by a support, the clamping unit being fixed onto the support so as to support the electrically-connecting part between the first connecting piece and the second connecting piece.
An electro-optic device (108A, 290, 108B) comprising, in order: a. an electrically-conductive light-transmissive layer (101, 281); b. an electro-optic material layer (102, 232); c. an adhesive layer (104, 104A, 253); and d. a backplane substrate (107, 270) comprising a plurality of pixel electrodes configured to apply an electrical potential between the electrically-conductive light-transmissive layer and the pixel electrodes; characterized in that the electro-optic device (108A, 290, 108B) comprises an activation region having an identification marker that emits radiation of a characteristic wavelength profile upon activation by a stimulus, and wherein the activation region is located in, or adjacent, the adhesive layer (104, 104A). a. an electrically-conductive light-transmissive layer (101, 281); b. an electro-optic material layer (102, 232); c. an adhesive layer (104, 104A, 253); and d. a backplane substrate (107, 270) comprising a plurality of pixel electrodes configured to apply an electrical potential between the electrically-conductive light-transmissive layer and the pixel electrodes;
A method for manufacturing at least one dental prosthesis implant abutment, an implant abutment comprising an insert in the lower part, comprising a connector configured to connect the abutment to an implant, and a body in the upper part configured to support a crown, the method comprising: - a step of producing an implant abutment blank, comprising ∘ a specific step of producing the body of the implant abutment, comprising a step of producing the body by additive manufacturing, on an additive manufacturing substrate, starting with the top of the body; and ∘ a step of producing an insert blank as an extension of the body, comprising a sub-step of producing a connector blank by additive manufacturing on the same additive manufacturing substrate; - at least one blank being positioned in a spark erosion machining apparatus enclosure, the spark erosion machining apparatus enclosure then being closed and filled with dielectric fluid; and - a step of producing the connector, comprising at least one step of spark erosion machining the connector blank by sinking at least one electrode onto the connector blank, the at least one electrode comprising a cavity representing a negative of the connector of the insert to be produced. - a step of producing an implant abutment blank, comprising ∘ a specific step of producing the body of the implant abutment, comprising a step of producing the body by additive manufacturing, on an additive manufacturing substrate, starting with the top of the body; and ∘ a step of producing an insert blank as an extension of the body, comprising a sub-step of producing a connector blank by additive manufacturing on the same additive manufacturing substrate; ∘ a specific step of producing the body of the implant abutment, comprising a step of producing the body by additive manufacturing, on an additive manufacturing substrate, starting with the top of the body; and ∘ a step of producing an insert blank as an extension of the body, comprising a sub-step of producing a connector blank by additive manufacturing on the same additive manufacturing substrate; - at least one blank being positioned in a spark erosion machining apparatus enclosure, the spark erosion machining apparatus enclosure then being closed and filled with dielectric fluid; and - a step of producing the connector, comprising at least one step of spark erosion machining the connector blank by sinking at least one electrode onto the connector blank, the at least one electrode comprising a cavity representing a negative of the connector of the insert to be produced.
A power conversion device comprising: - a transformer that is adapted to transform an input AC voltage; - a frequency detector that is adapted to repeat, for each threshold in a plurality of thresholds in order from greatest to least, detection of a frequency of the AC voltage based on an interval between time points at which the AC voltage via a band-pass filter exceeds the a threshold; - a filter adjuster that is adapted to calculate, when the frequency of the AC voltage detected by the frequency detector is greater than a predetermined value, a filter characteristic with the detected frequency of the AC voltage as a center frequency of the band-pass filter, and is adapted to adjust the band-pass filter based on the filter characteristic; and - a conversion unit that is adapted to perform a control based on the AC voltage via the band-pass filter such that a power factor is equal to or greater than a predetermined value, and that is adapted to convert the AC voltage transformed by the transformer into a DC voltage, and is adapted to output the DC voltage. - a transformer that is adapted to transform an input AC voltage; - a frequency detector that is adapted to repeat, for each threshold in a plurality of thresholds in order from greatest to least, detection of a frequency of the AC voltage based on an interval between time points at which the AC voltage via a band-pass filter exceeds the a threshold; - a filter adjuster that is adapted to calculate, when the frequency of the AC voltage detected by the frequency detector is greater than a predetermined value, a filter characteristic with the detected frequency of the AC voltage as a center frequency of the band-pass filter, and is adapted to adjust the band-pass filter based on the filter characteristic; and - a conversion unit that is adapted to perform a control based on the AC voltage via the band-pass filter such that a power factor is equal to or greater than a predetermined value, and that is adapted to convert the AC voltage transformed by the transformer into a DC voltage, and is adapted to output the DC voltage.
An apparatus (100, 200, 1100) for diffusing a chemical substance comprising: a chamber (104, 1104) having a diffusing member (204, 232, 1108) arranged to diffuse a chemical substance to air disposed within the chamber (104, 1104), wherein the chamber (104, 1104) is in communication with an air-inlet (106, 222, 1200) arranged to receive air from an exterior of the chamber (104, 1104) and an air-outlet (108, 224, 1116) arranged to expel air from within the chamber (104, 1104), wherein the diffusing member (204, 232, 1108) is a catalytic burner having a ceramic matrix, the ceramic matrix arranged to be heated by an electric heating element characterized in that said catalytic burner comprises metallic substances having a catalytic function, said metallic substances being arranged to be within said ceramic matrix. a chamber (104, 1104) having a diffusing member (204, 232, 1108) arranged to diffuse a chemical substance to air disposed within the chamber (104, 1104), wherein the chamber (104, 1104) is in communication with an air-inlet (106, 222, 1200) arranged to receive air from an exterior of the chamber (104, 1104) and an air-outlet (108, 224, 1116) arranged to expel air from within the chamber (104, 1104), wherein the diffusing member (204, 232, 1108) is a catalytic burner having a ceramic matrix, the ceramic matrix arranged to be heated by an electric heating element characterized in that said catalytic burner comprises metallic substances having a catalytic function, said metallic substances being arranged to be within said ceramic matrix.
A multi-layer film, which is suitable for use in a blister pack, and which comprises a base layer and either: (i) a security layer atop the base layer, which includes at least one security element, wherein the security layer comprises a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C; or (ii) a security layer atop the base layer, which includes at least one security element, and a heat protection layer atop the security layer, wherein a. the heat protection layer comprises a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C; or b. both the security layer and the heat protection layer comprise a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C. (i) a security layer atop the base layer, which includes at least one security element, wherein the security layer comprises a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C; or (ii) a security layer atop the base layer, which includes at least one security element, and a heat protection layer atop the security layer, wherein a. the heat protection layer comprises a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C; or b. both the security layer and the heat protection layer comprise a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C. a. the heat protection layer comprises a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C; or b. both the security layer and the heat protection layer comprise a semi-crystalline or amorphous polymer material having a Tg of greater than or equal to 85°C.