mhurhangee/ep-ind-claims huggingface dataset:
A cutting blade having a first face, a second face opposed to the first face and different from the first face as well as a cutting edge at the intersection of the first face and the second face, wherein • the first face comprises a first surface and a primary bevel with • the primary bevel extending from the cutting edge to the first surface, • a first intersecting line connecting the primary bevel and the first surface and • a first wedge angle θ 1 between an imaginary extension of the first surface and the primary bevel and • the second face comprises a secondary bevel and a tertiary bevel with • the secondary bevel extending from the cutting edge to the tertiary bevel, • a second intersecting line connecting the secondary bevel and the tertiary bevel, • a second wedge angle θ 2 between the first surface and the secondary bevel and • a third wedge angle θ 3 between the first surface and the tertiary bevel wherein θ 1 > θ 2 and θ 2 < θ 3. • the first face comprises a first surface and a primary bevel with • the primary bevel extending from the cutting edge to the first surface, • a first intersecting line connecting the primary bevel and the first surface and • a first wedge angle θ 1 between an imaginary extension of the first surface and the primary bevel and • the primary bevel extending from the cutting edge to the first surface, • a first intersecting line connecting the primary bevel and the first surface and • a first wedge angle θ 1 between an imaginary extension of the first surface and the primary bevel and • the second face comprises a secondary bevel and a tertiary bevel with • the secondary bevel extending from the cutting edge to the tertiary bevel, • a second intersecting line connecting the secondary bevel and the tertiary bevel, • a second wedge angle θ 2 between the first surface and the secondary bevel and • a third wedge angle θ 3 between the first surface and the tertiary bevel • the secondary bevel extending from the cutting edge to the tertiary bevel, • a second intersecting line connecting the secondary bevel and the tertiary bevel, • a second wedge angle θ 2 between the first surface and the secondary bevel and • a third wedge angle θ 3 between the first surface and the tertiary bevel
A venting valve for cargo tanks in, for instance, oil tankers, said valve comprising a valve housing with an axially movable valve body and a thereto associated valve seat, wherein the position of the valve body relative to the valve seat is dependent on the pressure in the cargo tank, the valve further comprising magnets (4a, 4b) provided on the valve body and in the valve housing, respectively, in such a way that the magnetic force seeks to hold the valve body downwards against the valve seat, characterized in that, the valve comprises a lifting element comprising a first section with an inner edge and a second section with an outer edge, the lifting element being arranged such as to extend at least partially, and preferably completely, around an outer circumferential part of the valve body above the valve seat, in that the lifting element is arranged on the valve body, preferably on a bottom part of the valve body, in such a way that when the valve body rests against the valve seat, the lifting element is placed in a distance from the valve seat, and in that the ratio between the diameter of the lifting element defined as the distance between diametrically opposed points on the outer edge and the diameter of the valve body defined as the distance between diametrically opposed points on the outer periphery of the valve body where the lifting element is arranged is less than 1,16.
An embolization coil comprising a wire material made of an Au-Pt alloy, wherein the wire material constituting the embolization coil has such a composition that a Pt concentration is 24 mass% or more and less than 34 mass%, with the balance being Au, and the wire material has such a material structure that a Pt-rich phase of an Au-Pt alloy having a Pt concentration of 1.2 to 3.8 times a Pt concentration of an α phase is distributed in an α phase matrix, wherein the wire material has a bulk susceptibility of -13 ppm or more and -5 ppm or less, and wherein in a material structure of a transverse cross-section of the wire material, an average value of two or more average crystal particle diameters measured by a linear intercept method is 0.20 μ m or more and 0.35 μ m or less.
A drawer wall, comprising: - an opening arranged on a shell surface of the drawer wall, - a movably supported cover portion configured to cover the opening in a closed position and to unblock the opening in an open position, - a spring element to pre-stress the cover portion in an operating direction of the spring element toward the closed position, wherein the cover portion is arranged so as to be stationary in a direction parallel to the shell surface and is movably supported in a direction approximately perpendicular to the shell surface against the operating direction of the spring element, characterized in that the cover portion is arranged within the drawer wall in all operating positions, wherein the opening is arranged on an upper side of the drawer wall, wherein a second drawer wall can be set onto the upper side of the drawer wall in the mounted position and wherein a fastening element of the second drawer wall is configured to be introduced into the opening in the shell surface for fixing the second drawer wall. - an opening arranged on a shell surface of the drawer wall, - a movably supported cover portion configured to cover the opening in a closed position and to unblock the opening in an open position, - a spring element to pre-stress the cover portion in an operating direction of the spring element toward the closed position, wherein the cover portion is arranged so as to be stationary in a direction parallel to the shell surface and is movably supported in a direction approximately perpendicular to the shell surface against the operating direction of the spring element,
A system comprising: a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient characterized in that the lower intensity electrical stimulation signal has a stimulation intensity that is less than or equal to 40% of a paresthesia threshold or perception threshold of the patient. a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient characterized in that the lower intensity electrical stimulation signal has a stimulation intensity that is less than or equal to 40% of a paresthesia threshold or perception threshold of the patient.
A method for acquiring MR signals of an object under examination in an MR system using a multi echo imaging sequence, the method comprising: - applying an RF excitation pulse to the object under examination in order to generate a transverse magnetization, - applying at least two RF refocusing pulses (31, 32) for refocusing the transverse magnetization in order to generate at least two MR spin echoes for the RF excitation pulse, - applying a first magnetic field gradient in a read out direction between the RF excitation pulse and the first of the at least two RF refocusing pulses, wherein the first magnetic field gradient is a bipolar gradient having only one negative gradient lobe and only one positive gradient lobe, - applying a second magnetic field gradient in the read out direction after each of the at least two RF refocusing pulses such that the zeroth and first gradient moment is substantially zero for the second magnetic field gradient, - acquiring the at least two MR spin echoes during the at least two second magnetic field gradients, wherein the first magnetic field gradient is designed such that a deviation from the condition of the following equation is minimized: ∫ t 0 t 1 G 2 t dt = 1 2 ∫ t 1 t 2 G 2 t dt = ⋯ = 1 2 ∫ n − 1 n G 2 t dt, with, t0 denoting the time of the excitation RF pulse, the other times t1, t2... denoting the time points of applied refocusing RF pulses (31, 32) and G ( t) the respectively applied gradients. - applying an RF excitation pulse to the object under examination in order to generate a transverse magnetization, - applying at least two RF refocusing pulses (31, 32) for refocusing the transverse magnetization in order to generate at least two MR spin echoes for the RF excitation pulse, - applying a first magnetic field gradient in a read out direction between the RF excitation pulse and the first of the at least two RF refocusing pulses, wherein the first magnetic field gradient is a bipolar gradient having only one negative gradient lobe and only one positive gradient lobe, - applying a second magnetic field gradient in the read out direction after each of the at least two RF refocusing pulses such that the zeroth and first gradient moment is substantially zero for the second magnetic field gradient, - acquiring the at least two MR spin echoes during the at least two second magnetic field gradients,
Process for producing a metallic component having a bearing surface which is stressed during operation of the component, wherein the component is blued in at least one bluing bath containing NaOH and NaNO 2 in a ratio of at least 8:2 or below to form an Fe 3 O 4 -containing surface layer and the component is coated with a fluid containing at least one organic metal compound for formation of metal oxides on the Fe 3 O 4 surface layer, using an organic metal compound whose organic bonding component is selected from the group consisting of acetylacetonates, alkoxides, silanes, aryls, thienyls and salts thereof.
A spatial augmentation system adapted to improve the accuracy and reliability of the data provided by a satellite navigation system, comprising: - at least one ground station for transmitting data to satellites, - at least one ground station for receiving signals transmitted by at least one satellite of a navigation system and by at least one satellite equipped with transmitting/receiving means adapted to transmit data received from the ground transmitting station intended for a determined geographical area, at least two redundant ground computing centres (5 1 a, 5 1 b, 5 2 a and 5 2 b), adapted to respectively calculate the navigation message streams and transmit to the ground transmitting station the navigation message streams and information representative of the quality of service provided by the system, from signals transmitted by the ground receiving station or stations, said ground computing centres (5 1 a, 5 1 b, 5 2 a and 5 2 b), the ground receiving station and the ground transmitting station being connected by at least one communication network, said system being characterized in that: the ground transmitting station is adapted to select the navigation message streams of a master computing centre among said ground computing centres (5 1 a, 5 1 b, 5 2 a and 5 2 b) as a function of the information representative of the respective quality of service of said computing centres, and in that said computing centres are synchronized on said master computing centre. - at least one ground station for transmitting data to satellites, - at least one ground station for receiving signals transmitted by at least one satellite of a navigation system and by at least one satellite equipped with transmitting/receiving means adapted to transmit data received from the ground transmitting station intended for a determined geographical area,
A locking device for a vehicle door, comprising - a catch bolt that is arranged on a door, - a lock that has a rotary latch with a recess, in which the catch bolt can be inserted and fixed by means of a locking pawl, wherein the lock is movably supported and - the catch bolt can be locked in the recess of the rotary latch by means of the locking pawl in a receiving position of the lock, - wherein the lock can be moved from the receiving position into an end position together with the locked catch bolt while moving along the vehicle door, with the vehicle door being completely closed in said end position, - wherein the rotational movement of an eccentrically designed rotary bolt causes the movement of the lock from the receiving position into the end position and back, - wherein the eccentric rotary bolt protrudes with its free end between two opposing contact faces (52, 54) formed on the lock or on a base plate, wherein the eccentric rotary bolt contacts either the first contact face or the second contact face and presses against the respective contact face during its rotational movement in such a way that the lock moves, wherein the lock is mounted on the base plate, which in the operative state is movably supported on a door portal, and wherein a bearing bolt, which protrudes into an oblong hole of the base plate, is provided on the door portal. - a catch bolt that is arranged on a door, - a lock that has a rotary latch with a recess, in which the catch bolt can be inserted and fixed by means of a locking pawl, - the catch bolt can be locked in the recess of the rotary latch by means of the locking pawl in a receiving position of the lock, - wherein the lock can be moved from the receiving position into an end position together with the locked catch bolt while moving along the vehicle door, with the vehicle door being completely closed in said end position, - wherein the rotational movement of an eccentrically designed rotary bolt causes the movement of the lock from the receiving position into the end position and back, - wherein the eccentric rotary bolt protrudes with its free end between two opposing contact faces (52, 54) formed on the lock or on a base plate, wherein the eccentric rotary bolt contacts either the first contact face or the second contact face and presses against the respective contact face during its rotational movement in such a way that the lock moves, wherein the lock is mounted on the base plate, which in the operative state is movably supported on a door portal, and wherein a bearing bolt, which protrudes into an oblong hole of the base plate, is provided on the door portal.
A gas turbine engine comprising: a compressor portion; a combustor fluidly connected to the compressor portion; a turbine section fluidly connected to the combustor, wherein the turbine section includes at least a first turbine portion and a second turbine portion connected to the first turbine portion via a transition duct, fluid in the second turbine portion having a lower pressure than fluid in the first turbine portion; characterized in that the second turbine portion is a split turbine portion and a static support structure is disposed within the split turbine portion; and wherein the transition duct is vaneless. a compressor portion; a combustor fluidly connected to the compressor portion; a turbine section fluidly connected to the combustor, wherein the turbine section includes at least a first turbine portion and a second turbine portion connected to the first turbine portion via a transition duct, fluid in the second turbine portion having a lower pressure than fluid in the first turbine portion; characterized in that the second turbine portion is a split turbine portion and a static support structure is disposed within the split turbine portion; and wherein the transition duct is vaneless.
A porous ceramic honeycomb body comprising a predominant cordierite ceramic phase, 1.0 wt% or less of Fe 2 O 3, 0.10 wt% or more of CaO, a total combined amount of Fe 2 O 3 and CaO of less than 1.40 wt% and between 0.5 and 2 wt% lanthanum oxide contained within the microstructure of the ceramic, the article exhibiting: a four-point beam bending modulus of rupture at 25°C, MOR; a room-temperature elastic modulus E as measured by a sonic resonance technique at 25°C; and a coefficient of thermal expansion CTE 200-1000 from 200°C - 1000°C in units of °C -1; wherein the ceramic body is characterized by a dimensionless strain tolerance, defined by a ratio MOR/E, and a thermal shock resistance, defined by TSL 200 = 200°C + (MOR/E) / CTE 200-1000, wherein the ceramic body exhibits MOR/E > 0.12x10 -2 and TSL 200 ≥ 900 °C after being at room temperature and then being subjected to a heat treatment including being exposed to an environment with a temperature in a range of 800 °C to 1100 °C for at least 25 hours, wherein the ceramic body has a total porosity of greater than or equal to 50% as measured by mercury porosimetry and wherein the ceramic honeycomb body is a particulate filter or a catalyst support.
Method of controlling an organic Rankine cycle system, the system comprising at least one feed pump, at least one heat exchanger, an expansion turbine and a condenser, the organic Rankine cycle comprising a feeding phase of an organic working fluid, a heating and vaporization phase of the same working fluid, an expansion and condensation phase of the same working fluid, wherein said method controls an adjusted variable, which is a function of an overheating of the organic fluid by means of a controller that acts by varying a control variable, which is a parameter of the organic fluid in its liquid phase, the method being characterized in that said adjusted variable is a temperature difference (ΔT) between a current temperature of the organic fluid in vapor phase at the turbine inlet and a temperature threshold (T lim) under which the expansion phase involves the formation of a liquid phase of the organic fluid.
Mobile air conditioner containing: a compressor, a first heat exchanger, a throttle valve, a second heat exchanger, a third heat exchanger, a storage medium, a water level controller, a Fan, a drain, a drain pump, a water supply, a drain hose, a first sensor, a second sensor, a stopcock, a Control and a vessel, the vessel containing the second heat exchanger positioned just above the vessel bottom, the drain pump being mounted below the second heat exchanger., wherein above the second heat exchanger the third heat exchanger is positioned at the top of the vessel, wherein in the vessel further the water level controller is positioned above the third heat exchanger, the first sensor is mounted next to the water level controller in the vessel, the vessel being filled with the storage medium, the drain being mounted on the vessel bottom, the vessel is connected via a line to the water supply and to the stopcock, the drain hose being attached to the top of the vessel and connected to the drain pump, the regulation/control connected to the compressor, the water level controller, the fan, the drain pump and the first and second sensors (13,14), with the fan upstream and the second sensor is mounted behind the first heat exchanger, the second heat exchanger being arranged in a refrigeration circuit after the compressor, the throttle valve being arranged behind the second heat exchanger, the Unite lines from the first and third heat exchanger (2.5), and the refrigeration circuit to the compressor is closed.
An ink jet printer, or a print head for an ink jet printer, the printer or print head either comprising a plurality of print nozzles in a substantially planar print face or comprising a mount for holding a removable unit that comprises a plurality of print nozzles in a substantially planar print face, the printer or print head further comprising: a capping member movable between an open position, in which the capping member does not cap the nozzles, and a closed position in which the capping member caps the nozzles, the capping member moving between the open and closed positions by rotation about an axis transverse to the plane of the print face; characterised in that the printer or print head comprises an arrangement of cams (43, 47) to drive the capping member along the axis of rotation by interaction of opposing cam surfaces (45, 49) during at least part of its rotation between the open and closed positions, the cam surfaces (45, 49) being in a recess in the printer or print head and being covered by a portion of the capping member at the open position and at the closed position. a capping member movable between an open position, in which the capping member does not cap the nozzles, and a closed position in which the capping member caps the nozzles, the capping member moving between the open and closed positions by rotation about an axis transverse to the plane of the print face; characterised in that the printer or print head comprises an arrangement of cams (43, 47) to drive the capping member along the axis of rotation by interaction of opposing cam surfaces (45, 49) during at least part of its rotation between the open and closed positions, the cam surfaces (45, 49) being in a recess in the printer or print head and being covered by a portion of the capping member at the open position and at the closed position.
Chair, in particular office chair, with a seat fastened to a base support unit, with a backrest, which has a lower backrest region and an upper shoulder region and which is fastened to a backrest support, which is rotatably mounted on the base support unit about an inclination axis, wherein the shoulder region is connected to the backrest support in an inclinable manner about a shoulder axis and is also hinged to the lower backrest region in a lumbar region and that the lower backrest region is further guided on a chair element, in such a way that a change of the angular orientation of the shoulder region relative to the lower backrest region is allowed while the shoulder region is inclined about the shoulder axis, wherein the lower backrest region is hinged to the seat, characterised in that the backrest has a middle region and also, adjacent to this, lateral regions, which are directed forwards for lateral guidance, wherein the orientation of the lateral regions in relation to the middle region is changed in a positively guided manner while the shoulder region is inclined, and characterised in that the lateral regions are swivellable about vertical axes (B1, B2) in relation to the middle region.
A sensor manifold comprising a plurality of fluid paths (4220-4225, 4503), each fluid path having a separate fluid inlet and outlet, and including a thermal well for transmitting temperature and permitting conductivity sensing of fluid passing along the fluid path, wherein the well is adapted for interconnection with a sensing probe (4404, 4501).
A method of collecting packaging material comprising a chain of blister packs arranged in an alternating manner and having foldable regions between the packs wherein after use of the product contained in the blister, the chain of emptied blister packs form a concertina fold, wherein all the blisters are of the same shape in the chain such that the repeating units of the blister chain are linked in such a way that their cavities fit into each other when stacking in an alternating way.