mhurhangee/ep-ind-claims huggingface dataset:
A gas cylinder actuator (10; 210; 310) with overtravel safety device, comprising: - a tubular containment jacket (11; 111; 211; 311; 411), - two opposite heads (12, 13; 212, 213; 412) for closing said tubular jacket, with corresponding sealing elements between the heads and the jacket, a first head provided with a through passage hole for a stem-piston, and a second opposite head, - a stem-piston, - between said tubular jacket (11; 111; 211; 311; 411), said opposite heads (12, 13; 212, 213; 412) and said stem-piston there being a chamber for pressurized gas, said gas cylinder actuator (10; 210; 310) being characterized in that said tubular jacket (11; 111; 211; 311; 411) has, at at least one of the portions (17, 18; 218) affected by one of said opposite heads (12, 13), a lightened portion (19; 119; 219; 319; 419) that is preset to be deformed in case of compression in an axial direction, allowing the relative movement of a corresponding head of said opposite heads toward the inside of said tubular jacket (11; 111; 211; 311; 411) so as to form a gas discharge passage between the jacket, the corresponding head and the corresponding sealing element. - a tubular containment jacket (11; 111; 211; 311; 411), - two opposite heads (12, 13; 212, 213; 412) for closing said tubular jacket, with corresponding sealing elements between the heads and the jacket, a first head provided with a through passage hole for a stem-piston, and a second opposite head, - a stem-piston, - between said tubular jacket (11; 111; 211; 311; 411), said opposite heads (12, 13; 212, 213; 412) and said stem-piston there being a chamber for pressurized gas, said gas cylinder actuator (10; 210; 310) being characterized in that said tubular jacket (11; 111; 211; 311; 411) has, at at least one of the portions (17, 18; 218) affected by one of said opposite heads (12, 13), a lightened portion (19; 119; 219; 319; 419) that is preset to be deformed in case of compression in an axial direction, allowing the relative movement of a corresponding head of said opposite heads toward the inside of said tubular jacket (11; 111; 211; 311; 411) so as to form a gas discharge passage between the jacket, the corresponding head and the corresponding sealing element.
Use of a tool guiding device in the assembly and adjustment step of furniture or furnishing items that provide at least one shoulder and a bottom, wherein front bodies and rear bodies each containing at least one joining group (35,37) between said shoulder and said bottom, are positioned beneath the bottom, wherein said device comprises a parallelepiped body in which at least two housings (A, B, C and D) are formed for guiding a rod with a tip of a tool, a channel (21, 22, 23 and 24) extends in each of said at least two housings (A, B, C and D), hollowed in the upper part of the body, which protrudes from a rear surface of the body in correspondence with respective openings (26, 27, 28 and 29) positionable towards said front bodies and rear bodies containing said at least one joining group, at least one transmission rod being provided between said front body and said at least one joining group of said rear body.
A printing unit comprising a first roller and a second roller provided substantially parallel and facing each other for transport of printing sheets between the first roller and the second roller by abutting the printing sheets from either side or for transfer of liquid from one to the other of the first roller and the second roller by abutment of the first roller to the second roller; wherein the first roller has a first rotation axis and the second roller has a second rotation axis; wherein the first roller is rotationally mounted at only one end of the first roller characterized in that this one end is mounted to a deflector; the deflector comprising a connection to a support; the connection being resilient for resiliently changing the angle of the first roller relatively to the second roller by bending the connection where, the first and the second rotation axes (6,7) approximately define a plane and the connection is resilient about a bending axis perpendicular to the plane for resiliently changing the angle of the first roller relatively to the second roller by means (16; 28) for bending the connection about the bending axis.
A method of polishing and lubricating a welding wire, comprising: feeding stock wire from a spool to a drawing stage, drawing the stock wire to produce a reduced diameter wire, thermally treating the reduced diameter wire to produce a thermally treated reduced diameter wire; drawing the thermally treated reduced diameter wire to produce a final diameter wire, polishing and lubricating the final diameter wire to remove particulate contamination from a surface of the final diameter wire by wrapping a cord that is impregnated with a quantity of a lubricant around the final diameter wire and passing the cord over the surface of the final diameter wire, wherein the lubricant is deposited over the surface by the cord, wherein the lubricant is selected from the list consisting of Molybdenum and Potassium; and winding the polished and lubricated wire onto a spool or into a drum; wherein polishing and lubricating the final diameter wire is performed downstream of drawing the reduced diameter wire and just prior to winding the polished wire. feeding stock wire from a spool to a drawing stage, drawing the stock wire to produce a reduced diameter wire, thermally treating the reduced diameter wire to produce a thermally treated reduced diameter wire; drawing the thermally treated reduced diameter wire to produce a final diameter wire, polishing and lubricating the final diameter wire to remove particulate contamination from a surface of the final diameter wire by wrapping a cord that is impregnated with a quantity of a lubricant around the final diameter wire and passing the cord over the surface of the final diameter wire, wherein the lubricant is deposited over the surface by the cord, wherein the lubricant is selected from the list consisting of Molybdenum and Potassium; and winding the polished and lubricated wire onto a spool or into a drum; wherein polishing and lubricating the final diameter wire is performed downstream of drawing the reduced diameter wire and just prior to winding the polished wire.
A power semiconductor module, comprising: a substrate with a metallization layer; at least one power semiconductor chip bonded to the substrate; a mold encapsulation partially encapsulating the semiconductor chip and the substrate, wherein the mold encapsulation comprises at least one window exposing a terminal area (38, 40) of the metallization layer; a power terminal bonded with an end to the terminal area; wherein the mold encapsulation comprises a central part, which encapsulates the semiconductor chip and a border part between the window and a border of the substrate, the border part of the mold encapsulation having a height over the substrate smaller than a maximal height over the substrate of the central part of the mold encapsulation; wherein a part of the power terminal protrudes above the border part in a direction parallel to the substrate, such that a vertical height over the substrate of the part is smaller than the maximal height of the central part of the mold encapsulation. a substrate with a metallization layer; at least one power semiconductor chip bonded to the substrate; a mold encapsulation partially encapsulating the semiconductor chip and the substrate, wherein the mold encapsulation comprises at least one window exposing a terminal area (38, 40) of the metallization layer; a power terminal bonded with an end to the terminal area; wherein the mold encapsulation comprises a central part, which encapsulates the semiconductor chip and a border part between the window and a border of the substrate, the border part of the mold encapsulation having a height over the substrate smaller than a maximal height over the substrate of the central part of the mold encapsulation; wherein a part of the power terminal protrudes above the border part in a direction parallel to the substrate, such that a vertical height over the substrate of the part is smaller than the maximal height of the central part of the mold encapsulation.
A process for preparing a supported catalytic material, comprising the step of: heating a precursor of a support material impregnated with a mixture of chemical precursors, wherein the mixture of chemical precursors includes: a nitrogen-containing reducing reagent as a precursor, and a transition metal-containing compound as a precursor, characterised in that the precursor of the support material is a wood material. a nitrogen-containing reducing reagent as a precursor, and a transition metal-containing compound as a precursor, characterised in that the precursor of the support material is a wood material.
Method for suppressing windmill returns received by a ground based pulse Doppler radar, said method including the following steps: a) emitting a waveform comprising a train of pulses at an average pulse repetition frequency of 3 to 7 kHz, b) upon reception of the echo pulses, transforming the echo pulses into a range Doppler matrix containing the signal power levels of the radar detections and indicating their respective range gate and Doppler filter, c) determining detections in any of the second, third, penultimate and last Doppler filters in a range gate where windmills are suspected, d) determining the signal power levels of detections in the first Doppler filter at range gates that are identical or adjacent to the range gate where windmills are suspected, e) determining the maximum of the signal power levels determined in the previous step, f) comparing the corresponding radar cross section of the maximum signal power level determined in the previous step with a predefined threshold value derived from the characteristic radar cross section of a rotor head of a windmill, g) excluding the detections in the range gate where windmills are suspected in the second, third, penultimate and last Doppler filter from further processing if the radar cross section of the maximum signal power level is above the predefined threshold. a) emitting a waveform comprising a train of pulses at an average pulse repetition frequency of 3 to 7 kHz, b) upon reception of the echo pulses, transforming the echo pulses into a range Doppler matrix containing the signal power levels of the radar detections and indicating their respective range gate and Doppler filter, c) determining detections in any of the second, third, penultimate and last Doppler filters in a range gate where windmills are suspected, d) determining the signal power levels of detections in the first Doppler filter at range gates that are identical or adjacent to the range gate where windmills are suspected, e) determining the maximum of the signal power levels determined in the previous step, f) comparing the corresponding radar cross section of the maximum signal power level determined in the previous step with a predefined threshold value derived from the characteristic radar cross section of a rotor head of a windmill, g) excluding the detections in the range gate where windmills are suspected in the second, third, penultimate and last Doppler filter from further processing if the radar cross section of the maximum signal power level is above the predefined threshold.
A Streptococcus pyogenes Cas9 (SpCas9) variant comprising an amino acid sequence of SEQ ID NO:1 comprising a substitution selected from A203D, N277H, G366S, F539S, 1601N, M7631, D965Y, F1038Y, M7631 and F1038Y, D965Y and F1038Y, K890N, and D1127E, wherein the SpCas9 variant has an endonuclease activity, and wherein the SpCas9 (Streptococcus pyogenes Cas9) variant has an improved target specificity compared to a wild-type SpCas9. wherein the SpCas9 variant has an endonuclease activity, and wherein the SpCas9 (Streptococcus pyogenes Cas9) variant has an improved target specificity compared to a wild-type SpCas9.
A device for automated CPR, the device comprising: - a CPR element comprising a compression element adapted to apply a compression force to a patient's chest - a control element adapted to control a position of the compression element during movement of the compression element from a first starting position of a first compression cycle to a first compression position corresponding to a first compression depth and back to a rest position of the compression element, and to disable the controlling of the position of the compression element and to activate controlling of a force exerted on the compression element, after the rest position has been reached at the end of the first compression cycle and until a second compression cycle starts, wherein the control element is adapted to impose a counterforce to the compression element, after the rest position has been reached and until a second compression cycle starts, in order to add a counterforce to the chest and ensure that the compression element stays in contact or recontacts with the chest after the first compression cycle whilst allowing the chest to recoil due to ventilation if ventilation is performed. - a CPR element comprising a compression element adapted to apply a compression force to a patient's chest - a control element adapted to control a position of the compression element during movement of the compression element from a first starting position of a first compression cycle to a first compression position corresponding to a first compression depth and back to a rest position of the compression element, and to disable the controlling of the position of the compression element and to activate controlling of a force exerted on the compression element, after the rest position has been reached at the end of the first compression cycle and until a second compression cycle starts, wherein the control element is adapted to impose a counterforce to the compression element, after the rest position has been reached and until a second compression cycle starts, in order to add a counterforce to the chest and ensure that the compression element stays in contact or recontacts with the chest after the first compression cycle whilst allowing the chest to recoil due to ventilation if ventilation is performed.
A method for determining a molecular structure of a sample, comprising: acquiring multiple diffraction patterns (711, 712, 713, 714) of the sample while tilting the sample relative to an incident beam; determining an amplitude of a structure factor based on intensities (721, 722, 723, 724) of a diffraction peak in the multiple diffraction patterns; and determining the molecular structure of the sample based on the amplitude of the structure factor and a phase of the structure factor, characterized in that the method further comprises: acquiring a first electron microscopy image of the sample; after acquiring the first EM image, acquiring a second EM image of the sample with a current density higher than a current density for acquiring the first EM image; and determining the phase of the structure factor based on the first EM image, the second EM image, and the intensities of the diffraction peak in the multiple diffraction patterns. acquiring multiple diffraction patterns (711, 712, 713, 714) of the sample while tilting the sample relative to an incident beam; determining an amplitude of a structure factor based on intensities (721, 722, 723, 724) of a diffraction peak in the multiple diffraction patterns; and determining the molecular structure of the sample based on the amplitude of the structure factor and a phase of the structure factor, characterized in that the method further comprises: acquiring a first electron microscopy image of the sample; after acquiring the first EM image, acquiring a second EM image of the sample with a current density higher than a current density for acquiring the first EM image; and determining the phase of the structure factor based on the first EM image, the second EM image, and the intensities of the diffraction peak in the multiple diffraction patterns. acquiring a first electron microscopy image of the sample; after acquiring the first EM image, acquiring a second EM image of the sample with a current density higher than a current density for acquiring the first EM image; and determining the phase of the structure factor based on the first EM image, the second EM image, and the intensities of the diffraction peak in the multiple diffraction patterns.
A device for the external fixation of bone fragments (62, 62') of a patient, in particular of the extremities, having a support which can be disposed outside the body of the patient, formed from a plurality of joint elements (2, 2') which are strung together, to which at least two percutaneously disposed pins anchored with their proximal end in the bone tissue of the patient can be secured via their distal end and can be fixed in their spatial position relative to each other; wherein the joint elements are strung together on a central tensile force element, and respectively two adjacent joint elements (2, 2') together form a ball joint with a spherical cap and a joint socket; and wherein the individual ball joints, and therefore the support, can be reversibly fastened by means of a force fit, preferably a frictional fit, by applying a tensile force to the central tensile force element, characterized in that the joint elements (2, 2') are configured in a manner such that by applying the tensile force via the central tensile force element, a pin can be fastened to the support by means of a force fit, preferably by clamping and/or by a frictional fit.
Method for transmitting signals over a power line network, wherein within said power line network at least one transmitter and at least one receiver communicate via at least two channels, each of said channels having a respective feeding port (FP1... FPn) of said at least one transmitter and a respective receiving port (RP1... RPn) of said at least one receiver, and said transmitter having at least two feeding ports (FP1... FPn), comprising: determining a channel characteristic of each of said channels applying a feeding port selection criterion based on said channel characteristic; wherein a signal transmitted by different feeding ports (FP1... FPn) is sent between different sets of two lines (P, N, PE) of the power line network, wherein at least one set of two lines (P, N, PE) comprises the protective earth line; dividing a period of an alternating current of said power line network into at least a first and a second part; determining a first channel characteristic for said first part and a second channel characteristic for said second part; selecting a first excluded feeding port (FP1... FPn) for said first part based on said feeding port selection criteria and a second excluded feeding port (FP1... FPn) for said second part based on said feeding port selection criteria. determining a channel characteristic of each of said channels applying a feeding port selection criterion based on said channel characteristic; wherein a signal transmitted by different feeding ports (FP1... FPn) is sent between different sets of two lines (P, N, PE) of the power line network, wherein at least one set of two lines (P, N, PE) comprises the protective earth line; dividing a period of an alternating current of said power line network into at least a first and a second part; determining a first channel characteristic for said first part and a second channel characteristic for said second part; selecting a first excluded feeding port (FP1... FPn) for said first part based on said feeding port selection criteria and a second excluded feeding port (FP1... FPn) for said second part based on said feeding port selection criteria.
Use of a lactam composition to improve toilet hygiene, the use comprising treatment of a toilet surface, wherein the composition comprises from 0.0001 to 5 wt.% of a lactam; wherein the use involves reduction of unwanted urine scale formation in the toilet; wherein the lactam is of formula or: wherein: R 1 and R 2 are each independently selected from hydrogen, halogen, alkyl, cycloalkyl, alkoxy, oxoalkyl, alkenyl, heterocyclyl, heteroaryl, aryl and aralalkyl; and R 3 is selected from hydrogen, hydroxyl, alkyl, cycloalkyl, alkoxy, oxoalkyl, alkenyl, heterocyclyl, heteroaryl, cycloalkyl, aryl, aralalkyl, -C CR 6 =CH 2, and (CH 2) n N + (R a) 3, where n is an integer from 1 to 16, preferably 2 to 8, and where each R a is independently H or C 1-4 alkyl; R 4 and R 5 are independently selected from hydrogen, aryl, heterocyclyl, heteroaryl, and arylalkyl; and R 6 is selected from hydrogen and methyl; and R 7 is selected from hydrogen and -C CR 6 =CH 2; and preferably, at least one of R 4 and R 5 is hydrogen. wherein the use involves reduction of unwanted urine scale formation in the toilet; wherein the lactam is of formula or: wherein: R 1 and R 2 are each independently selected from hydrogen, halogen, alkyl, cycloalkyl, alkoxy, oxoalkyl, alkenyl, heterocyclyl, heteroaryl, aryl and aralalkyl; and R 3 is selected from hydrogen, hydroxyl, alkyl, cycloalkyl, alkoxy, oxoalkyl, alkenyl, heterocyclyl, heteroaryl, cycloalkyl, aryl, aralalkyl, -C CR 6 =CH 2, and (CH 2) n N + (R a) 3, where n is an integer from 1 to 16, preferably 2 to 8, and where each R a is independently H or C 1-4 alkyl; R 4 and R 5 are independently selected from hydrogen, aryl, heterocyclyl, heteroaryl, and arylalkyl; and R 6 is selected from hydrogen and methyl; and R 7 is selected from hydrogen and -C CR 6 =CH 2; and preferably, at least one of R 4 and R 5 is hydrogen. R 1 and R 2 are each independently selected from hydrogen, halogen, alkyl, cycloalkyl, alkoxy, oxoalkyl, alkenyl, heterocyclyl, heteroaryl, aryl and aralalkyl; and R 3 is selected from hydrogen, hydroxyl, alkyl, cycloalkyl, alkoxy, oxoalkyl, alkenyl, heterocyclyl, heteroaryl, cycloalkyl, aryl, aralalkyl, -C CR 6 =CH 2, and (CH 2) n N + (R a) 3, where n is an integer from 1 to 16, preferably 2 to 8, and where each R a is independently H or C 1-4 alkyl; R 4 and R 5 are independently selected from hydrogen, aryl, heterocyclyl, heteroaryl, and arylalkyl; and R 6 is selected from hydrogen and methyl; and R 7 is selected from hydrogen and -C CR 6 =CH 2; and preferably, at least one of R 4 and R 5 is hydrogen.
Finger guard for an injection device with a hollow injection needle arranged to be hidden inside a component with an orifice prior to use and to be advanced relative to the component through the orifice for inserting it into an injection site, characterized in that the finger guard comprises a spring wire attached to the component and comprising an arcuate transversal section (48.1) biased in a manner to flex inwards so as to essentially obstruct the orifice for finger access when released but staying enough off-centre to allow the needle to advance through the orifice without touching the spring wire.
Closing arrangement for a cap of a tube, the cap being connected to or integrally formed with the tube, in a carrier, wherein the arrangement comprises at least a first, a second and a third moveable engagement member, the first member being adapted to induce a first part of the cap rotation and the second member being adapted to induce a second part of the cap rotation and the third member being adapted to induce a third part of the cap rotation for closure.