mhurhangee/ep-ind-claims huggingface dataset:
Lock having at least one latch that includes a first control cam which is engageable with a first pin of a push rod wherein the control cam includes a section extending oblique to the push out direction of the latch which upon movement of the push rod in locking direction in cooperation with the pin causes a pushing out of the latch, and wherein in locking direction subsequent to the oblique extending section a section is provided extending perpendicular to the push out direction in which the pin, after finishing a first moving section of the push rod, lies down and secures the latch against a pushing back, characterized in that the latch includes a further control cam (7, 7') sectionally extending in parallel to the first control cam such that the further control cam (7, 7'), beside a section (13, 13') extending oblique to the push out direction of the latch for pushing out the latch, also includes a section (15, 15') extending perpendicular to the locking direction subsequent to the push out direction which serves to secure the latch against pushing back after a second moving section of the push rod.
A shock and sound absorbing material, comprising a porous component and a surface material which is laminated onto said porous component, wherein said surface material includes a first sound absorbing layer arranged on said porous component, a second sound absorbing layer laminated onto said first sound absorbing layer, and a surface skin layer laminated onto said second sound absorbing layer, with said second sound absorbing layer comprising at least one layer made of a stretchable paper material, having an uneven surface, wherein said stretchable paper material is a creped and/or embossed paper, wherein in said creped paper fine wrinkles are formed on the surface of the paper, and in said embossed paper a large number of projections are formed on the surface of the paper, and in said embossed and creped paper fine wrinkles and a large number of projections are formed on the surface of the paper, and said stretchable paper material has a unit weight in the range of between 10 and 50 g/m 2, and an airflow resistance of between 0.06 and 3.0 kPa s/m, with said first sound absorbing layer made of an air-permeable porous component, wherein said air-permeable porous component has the unit weight in the range of between 200 g/m 2, and 1400 g/m 2, and the airflow resistance of between 0.1 kPa ·s/m and 5 kPa ·s/m with said surface material being set to have an airflow resistance of between 0.4 and 5.0 kPa ·s/m.
A method of detecting high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract, or an increased risk thereof, in a patient, which method comprises: (i) contacting a sample of pancreatobiliary cells from the patient with a set of detectably labeled probes consisting of a locus-specific probe for MCL1 (myeloid cell leukemia sequence 1), a locus-specific probe for EGFR (epidermal growth factor receptor), a locus-specific probe for MYC, and a locus-specific probe for P16 under hybridization conditions, and (ii) determining the presence of chromosomal abnormalities in the sample, wherein (a) high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract is indicated by polysomy (i.e. more than two copies of two or more loci per cell) in greater than 4 cells, and (b) an increased risk of high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract is indicated by (i) tetrasomy in greater than 11 cells, (ii) P16 loss in at least 5% of cells, (iii) single locus gain of MCL1, MYC or P16 in greater than 8 cells, or (iv) single locus gain of MCL1, EGFR, or MYC with concurrent P16 loss in greater than 4 cells, whereupon high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract, or an increased risk thereof, is detected in the patient. (i) contacting a sample of pancreatobiliary cells from the patient with a set of detectably labeled probes consisting of a locus-specific probe for MCL1 (myeloid cell leukemia sequence 1), a locus-specific probe for EGFR (epidermal growth factor receptor), a locus-specific probe for MYC, and a locus-specific probe for P16 under hybridization conditions, and (ii) determining the presence of chromosomal abnormalities in the sample, wherein (a) high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract is indicated by polysomy (i.e. more than two copies of two or more loci per cell) in greater than 4 cells, and (b) an increased risk of high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract is indicated by (i) tetrasomy in greater than 11 cells, (ii) P16 loss in at least 5% of cells, (iii) single locus gain of MCL1, MYC or P16 in greater than 8 cells, or (iv) single locus gain of MCL1, EGFR, or MYC with concurrent P16 loss in greater than 4 cells, (a) high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract is indicated by polysomy (i.e. more than two copies of two or more loci per cell) in greater than 4 cells, and (b) an increased risk of high-grade dysplasia, pancreatobiliary cancer, or metastatic cancer to the pancreatobiliary tract is indicated by (i) tetrasomy in greater than 11 cells, (ii) P16 loss in at least 5% of cells, (iii) single locus gain of MCL1, MYC or P16 in greater than 8 cells, or (iv) single locus gain of MCL1, EGFR, or MYC with concurrent P16 loss in greater than 4 cells,
A unit dose of a drug comprising: - a cell comprising a housing in which the drug is housed, - a card, on which the cell is fixed, - the card being provided with a weak slot, - the weak slot being located under the housing, - dose identification data, the data being placed on the card, - fixing means which fix the cell to the card formed by at least two distinct fixing points (149, 150), both these fixing points (149, 150) being located on either side of the weak slot, the weak slot having a minimum opening preventing the fixing points (149, 150) from being able to obstruct the weak slot. - a cell comprising a housing in which the drug is housed, - a card, on which the cell is fixed, - the card being provided with a weak slot, - the weak slot being located under the housing, - dose identification data, the data being placed on the card, - fixing means which fix the cell to the card formed by at least two distinct fixing points (149, 150), both these fixing points (149, 150) being located on either side of the weak slot, the weak slot having a minimum opening preventing the fixing points (149, 150) from being able to obstruct the weak slot.
A salt of 4-methylbenzenesulfonic acid and 2,2-dimethyl-6-((4-((3,4,5-trimethoxyphenyl)amino)-1,3,5-triazine-2-yl)amino)-2H-pyrido[3,2-b][1,4]oxazine-3 -one base: its hydrate, solvate or polymorphic modification of the salt, hydrate or solvate.
A method for determining structural parameters of a robot having a plurality of robot elements whose positions relative to each other are changeable, wherein said robot is surrounded by calibrating elements, a plurality of robot elements are connected to observation means, the relative position and/or orientation of said robot elements is determined, and the structural parameters are obtained on the basis of the relative position and/or orientation, characterized in that all calibrating elements surround said robot and all observation elements are connected to said robot elements.
A mechanical sealing device, comprising a first part comprising a first seal element and a first holder element for holding the first seal element, wherein the first seal element forms a first seal surface, an opposite backing surface and an outer peripheral surface, and wherein the first holder element has a support surface and an inner surface, and a second part comprising a second seal element forming a second seal surface, wherein the first part and the second part are rotary in relation to each other with respect to an axis (x) of rotation so that the first seal surface abuts sealingly the second seal surface in a radial plane with respect to the axis (x) of rotation, and wherein an elastomer element is provided between the outer peripheral surface of the first seal element and the inner surface of the first holder element, and wherein the opposite backing surface of the first seal element abuts tightly the support surface of the first holder element, the first seal element comprising a surrounding groove, characterised in that the elastomer element comprises an annular flange extending inwardly into the groove and that the first holder element comprises locking means adapted to secure the elastomer element between the outer peripheral surface and the inner surface
Apparatus for removing excess material, preferably a powder, from a cavity of a component comprising: - a platform for retaining the component, preferably an additively manufactured component, - a drive mechanism being coupled to the platform, wherein the drive mechanism is configured to rotate the component being retained by the platform independently around two orthogonal spatial directions (X, Y) and each with an unlimited angular deflection (α, β), wherein the drive mechanism comprises two independently controllable worm gears (WG1, WG2), one worm gear being configured for the rotation of the platform around one spatial direction (X,Y) each, and wherein an electrical motor (M1, M2) for driving said worm gear (WG1, WG2) and any electrical connection is arranged outside of the working space, - an actuation means for mechanically actuating the platform during a removal of the excess material, wherein the actuation means, is arranged inside the working space, and driven by a pressurised inert gas and without any electrical gear, and - a housing, defining a working space in which the excess material can be removed from the cavity, wherein the housing seals the working space against an environment, and wherein any electrical components for the drive mechanism are arranged out of the working space. - a platform for retaining the component, preferably an additively manufactured component, - a drive mechanism being coupled to the platform, wherein the drive mechanism is configured to rotate the component being retained by the platform independently around two orthogonal spatial directions (X, Y) and each with an unlimited angular deflection (α, β), wherein the drive mechanism comprises two independently controllable worm gears (WG1, WG2), one worm gear being configured for the rotation of the platform around one spatial direction (X,Y) each, and wherein an electrical motor (M1, M2) for driving said worm gear (WG1, WG2) and any electrical connection is arranged outside of the working space, - an actuation means for mechanically actuating the platform during a removal of the excess material, wherein the actuation means, is arranged inside the working space, and driven by a pressurised inert gas and without any electrical gear, and - a housing, defining a working space in which the excess material can be removed from the cavity, wherein the housing seals the working space against an environment, and wherein any electrical components for the drive mechanism are arranged out of the working space.
Method for locally modifying a structure of a paperboard, the method comprising providing the paperboard, penetrating a penetrating region of the paperboard by a laser radiation such that a moisture in the penetrating region evaporates for modifying the structure of the penetrating region wherein the penetrating region describes a creasing line along which the paperboard is intended to be bent.
Converter having a mains-side power converter and a load-side power converter, which are electrically conductively connected to one another on the DC voltage side, wherein a respective upper and lower valve branch (T1, T3, T5; T2, T4, T6) of each phase module of the load-side polyphase power converter has at least one two-pole subsystem, wherein at least two polyphase mains-commutated power converters are provided as the mains-side power converter, which converters are connected electrically in series on the DC voltage side and are each linked on the AC voltage side to a secondary winding of a mains transformer.
An image reading apparatus comprising: a first sensor that reads a first area of an image of a reading target; a second sensor that reads a second area partially overlapping with the first area in the image; a third sensor that reads a third area partially overlapping with the second area in the image; a first processor that performs a first merge process (S206A) of generating a first merge image including the first area and the second area based on first image data acquired by reading by the first sensor and second image data acquired by reading by the second sensor; and a second processor that performs a second merge process (S206B) of generating a second merge image including the second area and the third area based on the second image data and third image data acquired by reading by the third sensor, wherein an output image is generated by performing a linking process on the first merge image and the second merge image. a first sensor that reads a first area of an image of a reading target; a second sensor that reads a second area partially overlapping with the first area in the image; a third sensor that reads a third area partially overlapping with the second area in the image; a first processor that performs a first merge process (S206A) of generating a first merge image including the first area and the second area based on first image data acquired by reading by the first sensor and second image data acquired by reading by the second sensor; and a second processor that performs a second merge process (S206B) of generating a second merge image including the second area and the third area based on the second image data and third image data acquired by reading by the third sensor, wherein an output image is generated by performing a linking process on the first merge image and the second merge image.
A system for aseptically filling pharmaceutical containers with pharmaceutical fluid, the system comprising: an aseptically sealable chamber, wherein the aseptically sealable chamber includes a transfer wall including a plurality of openings each providing a sealing surface being aseptically sealable to a container, a robotic arm disposed within the sealable chamber and having a range of motion that allows it to move a fluid transfer conduit to each of the openings, a fluid transfer actuator to drive fluid through the fluid transfer conduit, a controller that includes: three-dimensional arm control logic to move the fluid transfer conduit to a selected container that sealably passes through one of the openings, and fluid transfer actuation logic to operate the fluid transfer actuator to transfer fluid between a fluid transfer vessel and the selected container, and a sterilizing facility for establishing an aseptic condition within the sealable chamber. an aseptically sealable chamber, wherein the aseptically sealable chamber includes a transfer wall including a plurality of openings each providing a sealing surface being aseptically sealable to a container, a robotic arm disposed within the sealable chamber and having a range of motion that allows it to move a fluid transfer conduit to each of the openings, a fluid transfer actuator to drive fluid through the fluid transfer conduit, a controller that includes: three-dimensional arm control logic to move the fluid transfer conduit to a selected container that sealably passes through one of the openings, and fluid transfer actuation logic to operate the fluid transfer actuator to transfer fluid between a fluid transfer vessel and the selected container, and three-dimensional arm control logic to move the fluid transfer conduit to a selected container that sealably passes through one of the openings, and fluid transfer actuation logic to operate the fluid transfer actuator to transfer fluid between a fluid transfer vessel and the selected container, and a sterilizing facility for establishing an aseptic condition within the sealable chamber.
A method of producing lighting devices, the method including: - providing a channel-shaped housing, - arranging in said housing a lighting module with at least one electrically-powered light radiation source and circuitry coupled with said at least one light radiation source, said at least one light radiation source and said circuitry facing towards the opening of the channel-shaped housing, - providing a light-permeable cover (22, 26) that covers said at least one light radiation source and leaves said circuitry uncovered, and - providing a sealing mass of light-impermeable material in said channel-shaped housing, said sealing mass masking said circuitry with the light radiation from said at least one light radiation source propagating through said light permeable cover (22, 26), the method characterized in that it includes providing said sealing mass of light-impermeable material by sealingly enclosing said light-permeable cover (22, 26) that covers said at least one light radiation source. - providing a channel-shaped housing, - arranging in said housing a lighting module with at least one electrically-powered light radiation source and circuitry coupled with said at least one light radiation source, said at least one light radiation source and said circuitry facing towards the opening of the channel-shaped housing, - providing a light-permeable cover (22, 26) that covers said at least one light radiation source and leaves said circuitry uncovered, and - providing a sealing mass of light-impermeable material in said channel-shaped housing, said sealing mass masking said circuitry with the light radiation from said at least one light radiation source propagating through said light permeable cover (22, 26),
A hard-coated tool having a hard coating formed on a substrate, the hard coating comprising a lower layer and an upper layer, characterized in that said lower layer is formed by an fcc-based titanium aluminum nitride coating, and said upper layer is formed by an aluminum nitride coating having an hcp crystal system; said upper layer has a columnar crystal structure, said columnar crystals having an average transverse cross section diameter of 0.05-0.6 μm, said lower layer has a columnar crystal structure, and a ratio of an X-ray diffraction peak value Ia of planes to an X-ray diffraction peak value Ia of planes in said upper layer meets the relation of Ia /Ia ≥ 6. said lower layer is formed by an fcc-based titanium aluminum nitride coating, and said upper layer is formed by an aluminum nitride coating having an hcp crystal system; said upper layer has a columnar crystal structure, said columnar crystals having an average transverse cross section diameter of 0.05-0.6 μm, said lower layer has a columnar crystal structure, and a ratio of an X-ray diffraction peak value Ia of planes to an X-ray diffraction peak value Ia of planes in said upper layer meets the relation of Ia /Ia ≥ 6.
A resistance spot welding method, the method being characterised by the following steps: a pulsation process of clamping a sheet assembly of two or more overlapping steel sheets (12, 14) including at least one high-tensile steel sheet using a pair of welding electrodes (16, 18) that are connected to a spot welding power source employing an inverter direct current method, and performing a plurality of repetitions of current passing and current pass stopping, while pressing the steel sheets (12, 14) with the welding electrodes (16, 18) onto each other and forming a nugget at the interface between the steel sheets (12, 14); and a continuous current passing process in which, after the pulsation process, current is passed continuously for a longer period of time than a maximum current passing time of the pulsation process, while pressing the steel sheets (12, 14) with the welding electrodes (16, 18) onto each other and growing the nugget, such that the nugget grows to the specific standard nugget diameter at a lower current value than when a single current pass is employed, wherein the current value in the continuous current pass process is lower than the maximum current value in the pulsation process. a pulsation process of clamping a sheet assembly of two or more overlapping steel sheets (12, 14) including at least one high-tensile steel sheet using a pair of welding electrodes (16, 18) that are connected to a spot welding power source employing an inverter direct current method, and performing a plurality of repetitions of current passing and current pass stopping, while pressing the steel sheets (12, 14) with the welding electrodes (16, 18) onto each other and forming a nugget at the interface between the steel sheets (12, 14); and a continuous current passing process in which, after the pulsation process, current is passed continuously for a longer period of time than a maximum current passing time of the pulsation process, while pressing the steel sheets (12, 14) with the welding electrodes (16, 18) onto each other and growing the nugget, such that the nugget grows to the specific standard nugget diameter at a lower current value than when a single current pass is employed, wherein the current value in the continuous current pass process is lower than the maximum current value in the pulsation process.
A method of preparing a sterile and injectable composition, the method comprising at least the steps of: a) providing at least one gel of a hyaluronic acid or a salt thereof, said hyaluronic acid being selected from a crosslinked hyaluronic acid form, a non-crosslinked hyaluronic acid form or a mixture thereof; b) adding to said gel of hyaluronic acid at least mepivacaine hydrochloride as anesthetic agent; and c) sterilizing the mixture obtained in step b). a) providing at least one gel of a hyaluronic acid or a salt thereof, said hyaluronic acid being selected from a crosslinked hyaluronic acid form, a non-crosslinked hyaluronic acid form or a mixture thereof; b) adding to said gel of hyaluronic acid at least mepivacaine hydrochloride as anesthetic agent; and c) sterilizing the mixture obtained in step b).