mhurhangee/ep-ind-claims huggingface dataset:
Resorbable subaortic ring, specially designed to be implanted in subaortic annuloplasty operations, characterised in that it comprises: - an open circular segment with a first end and a second end, the segment further comprising a solid cylindrical structure, and - a pair of suture threads emerging the first end and the second end of the open circular segment, wherein threads comprise polypropylene monofilaments and terminate in a pair of semi-circular needles. - an open circular segment with a first end and a second end, the segment further comprising a solid cylindrical structure, and - a pair of suture threads emerging the first end and the second end of the open circular segment, wherein threads comprise polypropylene monofilaments and terminate in a pair of semi-circular needles.
An allisartan isoproxil polymorph characterized in that the mentioned polymorph in the present invention has diffraction peaks at diffraction angles 2θ of 6.9, 8.0, 13.8, 20.1, 21.1, 22.2, 24.0 and 27.7 in the XRD spectrum and the error range is ± 0.2°.
A method for producing a 1,4-benzoxazine compound of the following formula: which comprises the following steps of: (step a) reacting a compound of the following formula [a]: with methanesulfonyl halide in the presence of a base to produce a compound of the following formula [b]: wherein Ms is a methanesulfonyl group, (step b) reacting said compound [b] with a boronic acid compound of the following formula [d]: wherein R and R' are the same or different and each of them is a hydrogen atom or an alkyl group, or both of them combine together to form an alkylene group, or with a boronic acid compound of the following formula [d-1-a]: in the presence of a copper catalyst, in the presence or absence of a base, and in the presence or absence of a ligand to produce a compound of the following formula [c]: wherein the symbol is the same as defined above, and (step c) converting the substituent at 7-position (dimesylamino group) in said compound [c] into a monomesylamino group to produce the compound of the above formula. (step a) reacting a compound of the following formula [a]: with methanesulfonyl halide in the presence of a base to produce a compound of the following formula [b]: wherein Ms is a methanesulfonyl group, (step b) reacting said compound [b] with a boronic acid compound of the following formula [d]: wherein R and R' are the same or different and each of them is a hydrogen atom or an alkyl group, or both of them combine together to form an alkylene group, or with a boronic acid compound of the following formula [d-1-a]: in the presence of a copper catalyst, in the presence or absence of a base, and in the presence or absence of a ligand to produce a compound of the following formula [c]: wherein the symbol is the same as defined above, and (step c) converting the substituent at 7-position (dimesylamino group) in said compound [c] into a monomesylamino group to produce the compound of the above formula.
A secondary battery comprising: a case having an internal space and an end; an electrode assembly accommodated in the case, the electrode assembly having a coated portion coated with an active material and an uncoated portion without the active material, wherein the uncoated portion comprises a side surface facing the end of the case; and a collector plate (130; 230; 330; 430) coupled to the side surface of the uncoated portion, the collector plate (130; 230; 330; 430) comprising a first collector plate (131; 231; 331; 431) comprising first protrusions (131b; 231b; 331 c; 431 d) and a second collector plate (132; 232; 332; 432) comprising second protrusions (132b; 232b; 332c; 432d), wherein the first protrusions (131b; 231b; 331 c; 431 d) of the first collector plate (131; 231; 331; 431) and the second protrusions (132b; 232b; 332c; 432d) of the second collector plate (132; 232; 332; 432) are engaged with each other with the uncoated portion interposed therebetween, the first protrusions (131b; 231b; 331 c; 431 d) and the second protrusions (132b; 232b; 332c; 432d) protrude in a first direction being parallel to the side surface of the uncoated portion, and a boundary surface (133; 233; 333; 433) between the first protrusions (131b; 231b; 331 c; 431 d) and the second protrusions (132b; 232b; 332c; 432d) is inclined with respect to a direction being perpendicular to the side surface of the uncoated portion, and wherein the first protrusions (131b; 231b; 331 c; 431 d) and the second protrusions (132b; 232b; 332c; 432d) are welded together at the boundary surface (133; 233; 333; 433). a case having an internal space and an end; an electrode assembly accommodated in the case, the electrode assembly having a coated portion coated with an active material and an uncoated portion without the active material, wherein the uncoated portion comprises a side surface facing the end of the case; and a collector plate (130; 230; 330; 430) coupled to the side surface of the uncoated portion, the collector plate (130; 230; 330; 430) comprising a first collector plate (131; 231; 331; 431) comprising first protrusions (131b; 231b; 331 c; 431 d) and a second collector plate (132; 232; 332; 432) comprising second protrusions (132b; 232b; 332c; 432d), wherein the first protrusions (131b; 231b; 331 c; 431 d) of the first collector plate (131; 231; 331; 431) and the second protrusions (132b; 232b; 332c; 432d) of the second collector plate (132; 232; 332; 432) are engaged with each other with the uncoated portion interposed therebetween, the first protrusions (131b; 231b; 331 c; 431 d) and the second protrusions (132b; 232b; 332c; 432d) protrude in a first direction being parallel to the side surface of the uncoated portion, and a boundary surface (133; 233; 333; 433) between the first protrusions (131b; 231b; 331 c; 431 d) and the second protrusions (132b; 232b; 332c; 432d) is inclined with respect to a direction being perpendicular to the side surface of the uncoated portion, and wherein the first protrusions (131b; 231b; 331 c; 431 d) and the second protrusions (132b; 232b; 332c; 432d) are welded together at the boundary surface (133; 233; 333; 433).
Method for protecting a gas turbine installation from overheating and for detecting a flame extinction in the combustion chamber, in which air is compressed in a compressor unit and, after being admixed with fuel, is ignited in the form of a fuel/air mixture in a combustion chamber and is burnt, thus giving rise to a hot gas flow which sets a turbine stage in rotation downstream of the combustion chamber so as to perform expansion work, and the pressure upstream of the turbine stage, that is to say the pressure p k of the compressed air in the plenum and/or the pressure within the combustion chamber p com is measured, characterized in that a time change of the measured pressure, what is known as the pressure gradient (p), is determined, in that at least one threshold value is selected, and in that the pressure gradient or a variable derived from the pressure gradient is compared with the at least one threshold value and, if the threshold value is overshot or undershot, a signal is generated and the signal leads to the emergency shutdown of the gas turbine installation.
An apparatus for measuring hemostasis comprising: a slot for receiving a container having therein a blood sample, wherein the container includes a portion transparent to an emission from a sensor; a shaker adapted to displace the container in order to cause an excitation of the blood sample, the blood sample being excited to a resonant state; the sensor adapted to determine a movement of the blood sample within the container responsive to the displacement of the container by the shaker by generating the emission and directing the emission toward the blood sample through the portion; and an analyzer coupled to the sensor to receive data from the sensor, the analyzer being adapted to derive a hemostasis characteristic of the blood sample based upon the data from the sensor; wherein the data from the sensor is indicative of the resonant state of the blood sample. a slot for receiving a container having therein a blood sample, wherein the container includes a portion transparent to an emission from a sensor; a shaker adapted to displace the container in order to cause an excitation of the blood sample, the blood sample being excited to a resonant state; the sensor adapted to determine a movement of the blood sample within the container responsive to the displacement of the container by the shaker by generating the emission and directing the emission toward the blood sample through the portion; and an analyzer coupled to the sensor to receive data from the sensor, the analyzer being adapted to derive a hemostasis characteristic of the blood sample based upon the data from the sensor; wherein the data from the sensor is indicative of the resonant state of the blood sample.
A charging port locking device, comprising: a charging port that has an engaged portion to be engaged with an engaging portion of a charging connector by an operation of an operator; a lock mechanism (7, 8) that achieves a locking state that restricts release of the engaged state by restricting the releasing operation of the engaging portion due to rotational movement of a restricting member (71, 81) in the locking direction and an unlock state that allows the releasing operation through a movement in the unlocking direction opposite to the locking direction; and a cover member that covers the lock mechanism (7, 8) from the insertion and removal direction of the charging connector and that is formed with an opening for enabling the engaging member to be inserted; characterized in that the end surface of the restricting member (71, 81) facing the cover member is configured to be longer than the width of the opening so that the opening of the cover member is entirely closed by the end surface of the restricting member (71, 81) in the locked state.
A vehicle seat comprising: a seat base with a base side panel; a seat back with a seat back side panel; a locking fixture pivotally connecting said seat back to said seat base, said locking fixture selectively locking said seat back to said seat base in a plurality of angular positions; a return spring connected to said seat base and said seat back and biasing said seat back in an angular direction with respect to said seat base, said return spring being a coil spring and being arranged on an outside said base side panel; a handle arranged outward of said return spring and connected to said locking fixture, said handle forming an operator interface for an operator to operate said locking fixture and selectively lock and unlock said seat back to said seat base in said plurality of angular positions; a stop element (24, 26, 32, 126) arranged on said outside of said base side panel, said stop element (24, 26, 32, 126) being connected to said handle and engaging with said locking fixture to limit rotation of said handle relative to said locking fixture, wherein said stop element (24, 26, 32, 126) is being arranged radially inside said return spring; characterized in that said stop element (24, 26, 126) has a larger diameter portion (24a, 26a, 126a) and smaller diameter portion (24b, 26b, 126b), said larger diameter portion (24a, 26a, 126a) being arranged adjacent said locking fixture and being arranged between said locking fixture and said return spring, said smaller diameter portion (24b, 26b, 126b) being arranged radially inside said return spring. a seat base with a base side panel; a seat back with a seat back side panel; a locking fixture pivotally connecting said seat back to said seat base, said locking fixture selectively locking said seat back to said seat base in a plurality of angular positions; a return spring connected to said seat base and said seat back and biasing said seat back in an angular direction with respect to said seat base, said return spring being a coil spring and being arranged on an outside said base side panel; a handle arranged outward of said return spring and connected to said locking fixture, said handle forming an operator interface for an operator to operate said locking fixture and selectively lock and unlock said seat back to said seat base in said plurality of angular positions; a stop element (24, 26, 32, 126) arranged on said outside of said base side panel, said stop element (24, 26, 32, 126) being connected to said handle and engaging with said locking fixture to limit rotation of said handle relative to said locking fixture, wherein said stop element (24, 26, 32, 126) is being arranged radially inside said return spring; characterized in that said stop element (24, 26, 126) has a larger diameter portion (24a, 26a, 126a) and smaller diameter portion (24b, 26b, 126b), said larger diameter portion (24a, 26a, 126a) being arranged adjacent said locking fixture and being arranged between said locking fixture and said return spring, said smaller diameter portion (24b, 26b, 126b) being arranged radially inside said return spring.
A brake disc release device for elevators, comprising: an actuating mechanism having a first end and a second end; characterized in that the brake disc release device further comprises: a gear connected to the first end of the actuating mechanism; a first slider capable of sliding along a first guide piece and comprising a rack portion for engagement with the gear and a first wedge portion; a second slider capable of sliding along a second guide piece and comprising a second wedge portion for engagement with the first wedge portion of the first slider; and a pulling cable having a first end connected to the second slider and a second end connected to the brake disc; wherein the actuating mechanism is rotated to drive the gear to rotate, drive the first slider to move in a first direction by means of the engagement between the gear and the rack portion of the first slider, drive the second slider to move in a second direction by means of the engagement between the first wedge portion of the first slider and the second wedge portion of the second slider, and thus drive the pulling cable to pull the brake disc. an actuating mechanism having a first end and a second end; a gear connected to the first end of the actuating mechanism; a first slider capable of sliding along a first guide piece and comprising a rack portion for engagement with the gear and a first wedge portion; a second slider capable of sliding along a second guide piece and comprising a second wedge portion for engagement with the first wedge portion of the first slider; and a pulling cable having a first end connected to the second slider and a second end connected to the brake disc; wherein the actuating mechanism is rotated to drive the gear to rotate, drive the first slider to move in a first direction by means of the engagement between the gear and the rack portion of the first slider, drive the second slider to move in a second direction by means of the engagement between the first wedge portion of the first slider and the second wedge portion of the second slider, and thus drive the pulling cable to pull the brake disc.
A system for determining the spectral sensitivity of a spectrograph, comprising an irradiation device configured to emit first electromagnetic radiation with a first spectrum including at least three simultaneously emitted, spectral lines (S1-Sk) equidistant in wavelength, and a spectrograph comprising a spectral separator and a photodetector with a plurality of pixels (P1-Pm), wherein the spectral separator is arranged so as to receive the first electromagnetic radiation and to separate the first electromagnetic radiation so that the at least three spectral lines (S1-Sk) are assigned to different pixels from among the plurality of pixels (P1-Pm), wherein the irradiation device comprises an irradiation source configured to emit second electromagnetic radiation with a second spectrum which is broadband or continuous and includes the at least three spectral lines (S1-Sk), and an irradiation conversion device arranged to convert the second electromagnetic radiation to the first electromagnetic radiation to be emitted by the irradiation device, wherein the irradiation conversion device comprises a Fabry-Perot resonator having a resonator length, L, and being configured to transmit the first electromagnetic radiation including the at least three spectral lines (S1-Sk), wherein the irradiation source is arranged inside of the Fabry-Perot resonator. comprising an irradiation device configured to emit first electromagnetic radiation with a first spectrum including at least three simultaneously emitted, spectral lines (S1-Sk) equidistant in wavelength, and a spectrograph comprising a spectral separator and a photodetector with a plurality of pixels (P1-Pm), wherein the spectral separator is arranged so as to receive the first electromagnetic radiation and to separate the first electromagnetic radiation so that the at least three spectral lines (S1-Sk) are assigned to different pixels from among the plurality of pixels (P1-Pm), wherein the irradiation device comprises an irradiation source configured to emit second electromagnetic radiation with a second spectrum which is broadband or continuous and includes the at least three spectral lines (S1-Sk), and an irradiation conversion device arranged to convert the second electromagnetic radiation to the first electromagnetic radiation to be emitted by the irradiation device, wherein the irradiation conversion device comprises a Fabry-Perot resonator having a resonator length, L, and being configured to transmit the first electromagnetic radiation including the at least three spectral lines (S1-Sk), wherein the irradiation source is arranged inside of the Fabry-Perot resonator.
A load operation control system, comprising: a drive shaft which rotates a load; a drive support which includes driving coils (66a to 66c) and supporting coils (67a to 67c), and rotates the drive shaft and supports a radial load of the drive shaft in a non-contact manner, by driving magnetic flux and supporting magnetic flux generated by flow of a current within a predetermined current range through-the driving coils (66a to 66c) and the supporting coils (67a to 67c); and a control section which controls an operating condition of the load based on a magnetic flux margin degree expressed by a difference between: a total magnetic flux amount including the driving magnetic flux and the supporting magnetic flux; and a predetermined limit of the total magnetic flux amount for the drive support, the driving magnetic flux being generated at the drive support for rotating the drive shaft and the supporting magnetic flux being generated at the drive support for supporting the radial load of the drive shaft in a predetermined operation region of the load. a drive shaft which rotates a load; a drive support which includes driving coils (66a to 66c) and supporting coils (67a to 67c), and rotates the drive shaft and supports a radial load of the drive shaft in a non-contact manner, by driving magnetic flux and supporting magnetic flux generated by flow of a current within a predetermined current range through-the driving coils (66a to 66c) and the supporting coils (67a to 67c); and a control section which controls an operating condition of the load based on a magnetic flux margin degree expressed by a difference between: a total magnetic flux amount including the driving magnetic flux and the supporting magnetic flux; and a predetermined limit of the total magnetic flux amount for the drive support, the driving magnetic flux being generated at the drive support for rotating the drive shaft and the supporting magnetic flux being generated at the drive support for supporting the radial load of the drive shaft in a predetermined operation region of the load.
A porous, composite bone graft implant comprising: a first component comprising bioactive glass fibers and bioactive glass granules; and a second component comprising a bioactive glass; wherein the second component is a shell and wherein the first component is encased within the second component; each of the components having a different resorption capacity than the other component. a first component comprising bioactive glass fibers and bioactive glass granules; and a second component comprising a bioactive glass; wherein the second component is a shell and wherein the first component is encased within the second component; each of the components having a different resorption capacity than the other component.
An apparatus for the preparation of a three-dimensional biodegradable fibre network product, the apparatus comprising: a mould comprising a plurality of pores and configured to be filled with foamed natural organic fibres in aqueous solution; an electromagnetic energy provider for providing electromagnetic energy to the foamed natural organic fibres inside the mould; and a controller component configured to control the electromagnetic energy provided by the electromagnetic energy provider to control a pressure build-up internally within the mould, wherein the three-dimensional biodegradable fibre network product is prepared based on evacuating liquid and steam from the mould through the pores by the provided electromagnetic energy. a mould comprising a plurality of pores and configured to be filled with foamed natural organic fibres in aqueous solution; an electromagnetic energy provider for providing electromagnetic energy to the foamed natural organic fibres inside the mould; and a controller component configured to control the electromagnetic energy provided by the electromagnetic energy provider to control a pressure build-up internally within the mould, wherein the three-dimensional biodegradable fibre network product is prepared based on evacuating liquid and steam from the mould through the pores by the provided electromagnetic energy.
Dishwasher, in particular a domestic dishwasher, comprising: a body that provides a washing chamber and has a loading opening for loading with washware; a pull-out part (12, 13, 14), arranged on running rails so as to be movable through the loading opening out of the washing chamber and/or into the washing chamber; and an ejection device for the pull-out part (12, 13, 14), the ejection device comprising: - a switching means, which is movably arranged inside the body and interacts with the pull-out part (12, 13, 14), - a coupling element, which is coupled to the switching means and movably arranged outside the body, - an energy storage device and - a guide unit by means of which the coupling element can be positionally securely positioned in each case in a first use position and in a second use position distinguishable from the first, characterised in that the guide unit comprises a latching element, which is guided in a groove-shaped guide track and interacts with the coupling element and releasably locks the coupling element in the first use position, the latching element being a wire clip, which at one end is rotatably arranged on the coupling element and at the other end engages in the guide track. - a switching means, which is movably arranged inside the body and interacts with the pull-out part (12, 13, 14), - a coupling element, which is coupled to the switching means and movably arranged outside the body, - an energy storage device and - a guide unit by means of which the coupling element can be positionally securely positioned in each case in a first use position and in a second use position distinguishable from the first, characterised in that the guide unit comprises a latching element, which is guided in a groove-shaped guide track and interacts with the coupling element and releasably locks the coupling element in the first use position, the latching element being a wire clip, which at one end is rotatably arranged on the coupling element and at the other end engages in the guide track.