mhurhangee/ep-ind-claims huggingface dataset:
A vibration sensor (900, 1000, 1100) comprising 1) a pressure detecting arrangement adapted to detect generated pressure variations, and provide an output signal in response to the detected pressure variations, wherein the pressure detecting arrangement comprises a MEMS microphone comprising a housing having a first PCB (902, 1002, 1103), wherein an acoustical opening (910, 1010, 1108) is provided in the first PCB (902, 1002, 1103), and wherein the MEMS microphone further comprises a MEMS cartridge (911, 1006, 1110) comprising a membrane (912, 1008, 1111) and a front chamber (918, 1011, 1113), and a back chamber (914, 1009, 1112) within which back chamber (914, 1109, 1112) a signal processor (913, 1007, 1114) is provided, 2) a pressure generating arrangement adapted to generate pressure variations in response to vibrations thereof, wherein the pressure generating arrangement comprises a housing (904, 1003, 1102), a suspension member (906, 1005, 1106) and a moveable mass (905, 1004, 1107) secured to the suspension member (906, 1005, 1106) wherein the pressure generating arrangement is secured to an exterior surface portion of the MEMS microphone, and wherein a volume (909, 1013, 1115) exists between the suspension member (906, 1005, 1106) and an outer surface of the first PCB (902, 1002, 1103), and wherein the acoustical opening (910, 1010, 1108) in the first PCB (902, 1002, 1103) is acoustically connected to the volume (909, 1013, 1115). 1) a pressure detecting arrangement adapted to detect generated pressure variations, and provide an output signal in response to the detected pressure variations, wherein the pressure detecting arrangement comprises a MEMS microphone comprising a housing having a first PCB (902, 1002, 1103), wherein an acoustical opening (910, 1010, 1108) is provided in the first PCB (902, 1002, 1103), and wherein the MEMS microphone further comprises a MEMS cartridge (911, 1006, 1110) comprising a membrane (912, 1008, 1111) and a front chamber (918, 1011, 1113), and a back chamber (914, 1009, 1112) within which back chamber (914, 1109, 1112) a signal processor (913, 1007, 1114) is provided, 2) a pressure generating arrangement adapted to generate pressure variations in response to vibrations thereof, wherein the pressure generating arrangement comprises a housing (904, 1003, 1102), a suspension member (906, 1005, 1106) and a moveable mass (905, 1004, 1107) secured to the suspension member (906, 1005, 1106)
A dispensing device for non-packaged goods, in particular bakery goods such as bread, rolls or the like, with at least one support framework and with at least one drawer-like insert which is inserted into the support framework in the assembled state, wherein the drawer-like insert defines a goods-accommodating space in which at least one trough-like and/or board-like receptacle for the goods is located, and wherein the drawer-like insert has at least one front opening via which the goods-accommodating space and the trough-like and/or board-like receptacle are accessible, and wherein the drawer-like insert has at least one transparent door and at least one door guide which, relative to the assembled and set-up state of the dispensing device, is arranged in the upper region of the opening, wherein the door has at least two guide pins and wherein the door guide further has a first guide cutout and a second guide cutout in which the guide pins are guided such that the door can be pushed at least partially into the goods-accommodating space, wherein the first guide cutout runs substantially vertically relative to the assembled and set-up state of the dispensing device and wherein the second guide cutout, relative to the assembled and set-up state of the dispensing device, runs substantially horizontally and substantially straight and wherein the door is so greatly curved in its upper region relative to the assembled and set-up state of the dispensing device that the door in the pushed-in state does not protrude beyond the upper edge of the drawer-like insert, characterised in that the second guide cutout, relative to the assembled and set-up state of the dispensing device, in the front region in its front end point is closer to the upper edge of the drawer-like insert than in its end facing the rear region of the dispensing device in the rear end point.
A thrust reverser for a device for receiving a propulsion element, such as a nacelle of a turbojet engine, the thrust reverser comprising: - a fixed structure, including an element for diverting at least one portion of an air flow intended to circulate in the nacelle, - a cowl which is movable in translation, adapted to occupy a closed position in which the cowl covers the element for diverting the air flow and an open position in which the cowl releases the element for diverting the air flow, - at least one displacement actuator configured to displace the cowl between the open position and the closed position, the at least one displacement actuator comprising a fixed portion, configured to be directly mounted on the fixed structure at a first anchoring position and a movable portion, configured to be directly mounted on the cowl at one second anchoring position, characterized in that it also comprises - an adjustment device configured to adjust the first anchoring position. - a fixed structure, including an element for diverting at least one portion of an air flow intended to circulate in the nacelle, - a cowl which is movable in translation, adapted to occupy a closed position in which the cowl covers the element for diverting the air flow and an open position in which the cowl releases the element for diverting the air flow, - at least one displacement actuator configured to displace the cowl between the open position and the closed position, the at least one displacement actuator comprising a fixed portion, configured to be directly mounted on the fixed structure at a first anchoring position and a movable portion, configured to be directly mounted on the cowl at one second anchoring position, - an adjustment device configured to adjust the first anchoring position.
A three-phase stacked triangular transformer core with three legs (21, 22, 23) and six yoke parts (31, 32, 33) therebetween, wherein said legs include stacked laminations, characterized in that in a cross-sectional plane perpendicular to the central transformer core axis said stacked laminations are oriented in substantially radial direction, wherein in the cross-sectional plane each leg (21, 22, 23) has two leg halves (21a, 21b, 22a, 22b, 23a, 23b), wherein each leg half has a plurality of outer corners facing a corresponding leg half of a neighboring leg, wherein for each of the leg halves said plurality of outer corners lie on a respective straight line (P1, P2) within a lateral tolerance ΔA, wherein for each leg half the straight line defined by this leg half and the straight line defined by the corresponding leg half of the neighboring leg are parallel, and wherein said lateral tolerance ΔA is given by ΔA≤0.02*L, wherein L is the maximum length of a leg cross-section.
A vehicular metal absorber comprising a center flange, a top web and bottom web connected to the two sides of the center flange, a top flange connected to the top web, and a bottom flange connected to the bottom web and formed overall into a hat shaped cross-section, wherein in the hat-shaped cross-section, an internal angle α 1 formed by the top web with a flange plane including the top flange and bottom flange and an internal angle α 2 formed by the bottom web with said flange plane are respectively over 0 degree to less than 90 degrees and one or both of the top web and bottom web are provided with a recessed or projecting bead (7-1, 7-2) substantially parallel to a front-back direction of a vehicle, said vehicular metal absorber characterized in that the recessed or projecting bead (7-1, 7-2) is provided on the whole area of one or both of the top web and bottom web, and a bent part (1103, 1104) is provided in the middle of one or both of the top web and bottom web, an internal angle β 1 formed by the bent part of the top web with the flange plane is over 0 degree to less than α 1 degrees, and an internal angle β 2 formed by the bent part of the bottom web with the flange plane is over 0 degree to less than α 2 degrees.
Hook lock for a rectangular seal, having a sealing body and at least a pair of cooperating locking elements (12a, 13b; 12b; 13a), whereby a first locking element is formed hook-like and engages, for closing the rectangular seal, the complementary formed second closing element, wherein the first locking element comprises a tongue as well as a recess and the second locking element comprises a further tongue as well as a further recess, characterized in that the recesses (13a, 13b) are each formed by a bottom (13b'; 13a') and a wall (13b"; 13a") of the remaining part of the sealing body, that, in a closed state of the hook lock, the tongue of the first locking element enters, seen in a radial direction, the corresponding recess of the second locking element and the tongue of the second locking element enters into the corresponding recess of the first locking element, that, in an axial direction, the tongue of the first locking element lies above the wall (13b'") of the recess of the second locking element and the tongue of the second locking element lies above the wall (13a") of the first locking element, that, in the radial direction, the tongue lies above the bottom of the recess of the second locking element and the further tongue lies above the bottom of the recess of the first locking element, and that at least one of the tongues (12a; 12b) comprises a latching element (14a; 14b) projecting inwardly and the corresponding recess (13b; 13a) comprises a latching receptive (15b; 15a) for said latching element (14a; 14b), in which the latching element (14a, 14b) can be inserted for closing the hook lock.
A method for selecting a relay type, comprising: selecting, by a relay node, a Un interface frequency band with an optimal signal according to frequency bands supported on a Un interface; wherein the selecting, by the relay node, the Un interface frequency band with the optimal signal comprises: measuring, by the relay node, frequency bands that the relay node supports on the Un interface, which includes measuring reference signal received power, RSRP, and reference signal received quality, RSRQ, of each of the frequency bands, and selecting a frequency band with optimal RSRP and RSRQ from a measurement result; and determining, by the relay node, a relay type according to the selected Un interface frequency band and a configured Uu interface frequency band, and sending indication information to a donor E-UTRAN Node B, DeNB, wherein the indication information comprises the selected Un interface frequency band and the relay type. selecting, by a relay node, a Un interface frequency band with an optimal signal according to frequency bands supported on a Un interface; wherein the selecting, by the relay node, the Un interface frequency band with the optimal signal comprises: measuring, by the relay node, frequency bands that the relay node supports on the Un interface, which includes measuring reference signal received power, RSRP, and reference signal received quality, RSRQ, of each of the frequency bands, and selecting a frequency band with optimal RSRP and RSRQ from a measurement result; and determining, by the relay node, a relay type according to the selected Un interface frequency band and a configured Uu interface frequency band, and sending indication information to a donor E-UTRAN Node B, DeNB, wherein the indication information comprises the selected Un interface frequency band and the relay type.
Aqueous abrasive cleaning composition comprising: (i) calcium salt of linear alkyl benzene sulphonic acid; (ii) abrasive particles; and (iii) alkoxylated fatty alcohol; wherein (a) the composition has a pH in the range of 6 to 8 at 20 °C; (b) the composition comprises an amount of magnesium salt of linear alkyl benzene sulphonic acid that is 0 to 1 % of the amount of said calcium salt; (c) the composition comprises less than 1 wt% sodium salt of linear alkyl benzene sulphonic acid; (d) the composition has a viscosity of 500 to 2000 mPas (cP) at 20°C; (e) said abrasive has a Moh's index of 0.5 to 7; (f) the amount of surfactant on the surface of the abrasive particles is 0 to 10 % of the total surfactant of the composition; and (g) said alkoxylated fatty alcohol has an HLB in the range of 11 to 20 and carbon chain length in the range of 12 to 16. (i) calcium salt of linear alkyl benzene sulphonic acid; (ii) abrasive particles; and (iii) alkoxylated fatty alcohol; (a) the composition has a pH in the range of 6 to 8 at 20 °C; (b) the composition comprises an amount of magnesium salt of linear alkyl benzene sulphonic acid that is 0 to 1 % of the amount of said calcium salt; (c) the composition comprises less than 1 wt% sodium salt of linear alkyl benzene sulphonic acid; (d) the composition has a viscosity of 500 to 2000 mPas (cP) at 20°C; (e) said abrasive has a Moh's index of 0.5 to 7; (f) the amount of surfactant on the surface of the abrasive particles is 0 to 10 % of the total surfactant of the composition; and (g) said alkoxylated fatty alcohol has an HLB in the range of 11 to 20 and carbon chain length in the range of 12 to 16.
A system for intraoperative planning and assessment of spinal deformity correction during a surgical spinal procedure, the system comprising: a spatial tracking IR-reflective tracking array attached to a digitizer pointer used to digitize the surgical implant location, wherein the tracking array includes: a housing; a plurality of IR-reflective spheres; characterized in that the tracking array further comprises first and second shutters; wherein each shutter includes a cover portion; and the shutters are positioned over the housing such that each shutter cover obscures exactly one half of the IR-reflective sphere. a housing; a plurality of IR-reflective spheres; characterized in that the tracking array further comprises first and second shutters; wherein each shutter includes a cover portion; and the shutters are positioned over the housing such that each shutter cover obscures exactly one half of the IR-reflective sphere.
Use of a powder paint composition for producing aqueous emulsion paints, where the powder paint composition comprises a) at least one water-redispersable polymer powder, b) pigment and filler, c) optionally further adjuvants, and optionally one or more hydraulic binders selected from the group encompassing cement, gypsum, lime, and waterglass, characterized in that the water-redispersable polymer powder is a) a polyvinyl alcohol-stabilized copolymer based on a1) 50 to 95 wt% of vinyl acetate, a2) 1 to 30 wt% of ethylene, a3) 0 to 20 wt% of vinyl esters of long-chain, optionally branched C 3 to C 12 carboxylic acids, a4) 0 to 10 wt% of further ethylenically unsaturated comonomers copolymerizable therewith, the amounts in wt% adding up in each case to 100 wt%, and the polyvinyl alcohol comprises a mixture of at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity (4% aqueous solution, Höppler method at 20°C, DIN 53015) of 1 to 5 mPas and at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity of 6 to 40 mPas, with the proviso that a powder paint composition comprising hydraulic binders comprises 0.1 to 10 wt% of hydraulic binder, based on the total weight of the powder paint composition. where the powder paint composition comprises a) at least one water-redispersable polymer powder, b) pigment and filler, c) optionally further adjuvants, and optionally one or more hydraulic binders selected from the group encompassing cement, gypsum, lime, and waterglass, characterized in that the water-redispersable polymer powder is a) a polyvinyl alcohol-stabilized copolymer based on a1) 50 to 95 wt% of vinyl acetate, a2) 1 to 30 wt% of ethylene, a3) 0 to 20 wt% of vinyl esters of long-chain, optionally branched C 3 to C 12 carboxylic acids, a4) 0 to 10 wt% of further ethylenically unsaturated comonomers copolymerizable therewith, the amounts in wt% adding up in each case to 100 wt%, and the polyvinyl alcohol comprises a mixture of at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity (4% aqueous solution, Höppler method at 20°C, DIN 53015) of 1 to 5 mPas and at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity of 6 to 40 mPas, with the proviso that a powder paint composition comprising hydraulic binders comprises 0.1 to 10 wt% of hydraulic binder, based on the total weight of the powder paint composition.
A system for injecting radio frequency energy into an accelerator comprising a cavity structure, the system comprising: a vacuum chamber defining a vacuum environment occupied by said cavity structure; a power amplifier assembly comprising a power amplifier assembly output interface and directly coupled to the cavity structure so as to provide a negligible power transmission line between the power amplifier assembly output interface and the cavity structure; wherein the power amplifier assembly comprises: an RF power amplifier a socket interface that complementarily accepts the RF power amplifier, and an antenna located within the cavity structure, wherein the antenna is connected to the socket interface and electromagnetically coupled to the cavity structure; and a power supply interface including: a biasing element to bias the power amplifier assembly, said power supply interface configured to supply a radio frequency energy to to the power amplifier assembly, said power amplifier assembly configured to amplify said radiofrequency energy and to transmit a resulting amplified RF power into the cavity structure; characterized in that the RF power amplifier is located, in operation, external and adjacent the vacuum chamber, and in that it further comprises an electrically insulating hermetic break located between the antenna and RF power amplifier, such that the cavity structure is configured to be held at vacuum and the RF power amplifier is configured to operate at atmospheric pressure. a vacuum chamber defining a vacuum environment occupied by said cavity structure; a power amplifier assembly comprising a power amplifier assembly output interface and directly coupled to the cavity structure so as to provide a negligible power transmission line between the power amplifier assembly output interface and the cavity structure; wherein an RF power amplifier a socket interface that complementarily accepts the RF power amplifier, and an antenna located within the cavity structure, wherein the antenna is connected to the socket interface and electromagnetically coupled to the cavity structure; and a power supply interface including: a biasing element to bias the power amplifier assembly, said power supply interface configured to supply a radio frequency energy to to the power amplifier assembly, said power amplifier assembly configured to amplify said radiofrequency energy and to transmit a resulting amplified RF power into the cavity structure; characterized in that
A process for producing a compound of formula wherein Rf is C 1-8 -fluoroalkyl: comprising reacting a compound of formula wherein X is a halogen atom: with a fluoroalkylating agent.
A method of concealment of at least one decoding error induced by at least one transmission error, in a multimedia sequence transmitted over a network between a server and a client, the method being characterized in that it comprises the following steps, - obtaining, further to the detection of said at least one transmission error, a synchronized stream of images (408, 806, 1103) linked to said multimedia sequence, said synchronized stream of images comprising refresh data; - determining said at least one decoding error, - creating an error stream of images linked to said multimedia sequence, said at least one decoding error being propagated in said error stream of images, and - creating a resulting stream of images (412, 813, 1117) according to a function of said synchronized stream of images, said at least one decoding error and said error stream of images, the influence of the at least one decoding error consisting in values of pixels of an error image of the said error stream of images, in said function, diminishing progressively with time. - obtaining, further to the detection of said at least one transmission error, a synchronized stream of images (408, 806, 1103) linked to said multimedia sequence, said synchronized stream of images comprising refresh data; - determining said at least one decoding error, - creating an error stream of images linked to said multimedia sequence, said at least one decoding error being propagated in said error stream of images, and - creating a resulting stream of images (412, 813, 1117) according to a function of said synchronized stream of images, said at least one decoding error and said error stream of images, the influence of the at least one decoding error consisting in values of pixels of an error image of the said error stream of images, in said function, diminishing progressively with time.
Vehicle seat having a seat part and a backrest and having changeable seat configuration positions (6, 7, 8, 9, 10, 30), comprising a first position of a shoulder support, a second position of a lumbar support, a third seat height position, a fourth longitudinal position of the vehicle seat, a fifth seat inclination position and a sixth backrest inclination position, by means of which positions a first seat configuration and a second seat configuration, which is different to the first, can be defined, characterised in that the seat configurations (28, 29) differ in at least two different positions (6, 7, 8, 9, 10, 30), and the vehicle seat has a control device by means of which the first and the second seat configuration of the vehicle seat can be automatically alternately adjusted after a predetermined and changeable time interval by means of a simultaneous and mutually independent change of the at least two different positions (6, 7, 8, 9, 10, 30).
A method for quantitative determination of Sudden Cardiac Death risk using digital electrocardiogram -type data of an individual, the method comprising steps of: (a) preprocessing digital ECG-type data by detrending, denoising, and normalizing, to obtain preprocessed ECG-type data; (b) generating a plurality of mathematical digital ECG-derived models corresponding to the preprocessed ECG-type data; (c) generating digital ECG-derived control model systems corresponding to each ECG-derived model; (d) applying perturbations simulating electrical impulses to the digital ECG-derived control model systems; (e) determining system stabilities of the digital ECG-derived control model systems, in response to the applied perturbations, by a plurality of techniques; and (f) determining, based on the system stabilities, a derived SCD risk for the individual. (a) preprocessing digital ECG-type data by detrending, denoising, and normalizing, to obtain preprocessed ECG-type data; (b) generating a plurality of mathematical digital ECG-derived models corresponding to the preprocessed ECG-type data; (c) generating digital ECG-derived control model systems corresponding to each ECG-derived model; (d) applying perturbations simulating electrical impulses to the digital ECG-derived control model systems; (e) determining system stabilities of the digital ECG-derived control model systems, in response to the applied perturbations, by a plurality of techniques; and (f) determining, based on the system stabilities, a derived SCD risk for the individual.