mhurhangee/ep-ind-claims huggingface dataset:
Textile material having a circuit module (20, 24) and an antenna, wherein the antenna is in the form of an E-field emitter for an operating frequency in the UHF or microwave range and is completely composed of parts of the textile material itself in the form of electrically conductive thread structures, wherein antenna structures of a narrow-strip fabric produced on a needle weaving machine are formed by asymmetrical meander structures which comprise a continuous electrically conductive thread which runs outside the textile material in sections parallel and/or oblique with respect to the warp threads, characterized in that the antenna structure is produced together with the textile material in that the electrically conductive thread is introduced into the narrow-strip fabric as an electrically conductive weft thread between the sections, is arranged between a starting point of the introduction and an active edge within the narrow-strip fabric transverse to warp threads and runs from the starting point of the introduction to the active edge, is fixed there and runs directly back from the active edge to the starting point of the introduction.
An anti-sclerostin antibody or fragment thereof for use in a method for inhibiting bone resorption in a human, the method comprising administering to the human said anti-sclerostin antibody or fragment thereof in an amount from 1 mg/kg to 5 mg/kg, wherein the anti-sclerostin antibody or fragment thereof demonstrates a binding affinity for sclerostin of SEQ ID No: 1 of less than or equal to 1 x 10 -7 M and cross-blocks the binding to sclerostin of an antibody comprising CDRs of SEQ ID Nos: 245, 246, 247, 78, 79 and 80 or CDRs of SEQ ID Nos. 284, 285, 286, 296, 297 and 298, or is cross-blocked from binding to sclerostin by said antibody, wherein: - SEQ ID No:245 = Asp Tyr Asn Met His; - SEQ ID No:246 = Glu Ile Asn Pro Asn Ser Gly Gly Ala Gly Tyr Asn Gln Lys Phe Lys Gly; - SEQ ID No:247 = Leu Gly Tyr Asp Asp Ile Tyr Asp Asp Trp Tyr Phe Asp Val; - SEQ ID No: 78 = Arg Ala Ser Gln Asp Ile Ser Asn Tyr Leu Asn; - SEQ ID No: 79 = Tyr Thr Ser Arg Leu Leu Ser; and - SEQ ID No: 80 = Gln Gln Gly Asp Thr Leu Pro Tyr Thr; and - SEQ ID NO: 284 = Arg Ala Ser Ser Ser Val Thr Ser Ser Tyr Leu Asn; - SEQ ID NO: 285 = Ser Thr Ser Asn Leu Ala Ser; - SEQ ID NO: 286 = Gln Gln Tyr Asp Phe Phe Pro Ser Thr; - SEQ ID NO: 296 = Asp Tyr Tyr Met Asn; - SEQ ID NO: 297 = Asp He Asn Pro Tyr Asn Asp Asp Thr Thr Tyr Asn His Lys Phe Lys Gly; and - SEQ ID NO 298 = Glu Thr Ala Val He Thr Thr Asn Ala Met Asp. - SEQ ID No:245 = Asp Tyr Asn Met His; - SEQ ID No:246 = Glu Ile Asn Pro Asn Ser Gly Gly Ala Gly Tyr Asn Gln Lys Phe Lys Gly; - SEQ ID No:247 = Leu Gly Tyr Asp Asp Ile Tyr Asp Asp Trp Tyr Phe Asp Val; - SEQ ID No: 78 = Arg Ala Ser Gln Asp Ile Ser Asn Tyr Leu Asn; - SEQ ID No: 79 = Tyr Thr Ser Arg Leu Leu Ser; and - SEQ ID No: 80 = Gln Gln Gly Asp Thr Leu Pro Tyr Thr; and - SEQ ID NO: 284 = Arg Ala Ser Ser Ser Val Thr Ser Ser Tyr Leu Asn; - SEQ ID NO: 285 = Ser Thr Ser Asn Leu Ala Ser; - SEQ ID NO: 286 = Gln Gln Tyr Asp Phe Phe Pro Ser Thr; - SEQ ID NO: 296 = Asp Tyr Tyr Met Asn; - SEQ ID NO: 297 = Asp He Asn Pro Tyr Asn Asp Asp Thr Thr Tyr Asn His Lys Phe Lys Gly; and - SEQ ID NO 298 = Glu Thr Ala Val He Thr Thr Asn Ala Met Asp.
Hard surface suction cleaner, comprising a suction unit, a dirty-liquid tank and a separating device for separating liquid from a suctioned liquid-air mixture and comprising a suction nozzle having a suction mouth which is adjoined by a suction duct, wherein the end of the suction duct facing away from the suction mouth is connectable to the suction unit for creating a suction flow and wherein the suction duct has a bottom wall and a top wall which are connected to one another via arcuately curved side walls (84, 85), characterized in that the hard surface suction cleaner has, at a location upstream of the suction unit, a separating chamber which receives the separating device and is connected to the dirty-liquid tank via a drain opening, and in that the rear end region of the suction duct facing away from the suction mouth and/or the front end region, facing towards the suction mouth, of a vacuum conduit connecting the suction unit to the separating chamber is/are at least partially surrounded by at least one intermediate storage region (117, 118, 119) for separated liquid in a circumferential direction within the separating chamber.
A cold water tank comprising: a first tank having an inlet pipe through which water to be cooled is introduced; and a second tank provided in the interior of the first tank such that water of the first tank can be introduced thereinto, having an evaporator included in a refrigerating cycle to cool the introduced water, and having an outlet pipe through which cooled water flows out, characterized in that a plurality of inlet holes are formed at the second tank to allow the water in the first tank to be introduced into the second tank in the outer vicinity of the evaporator, wherein a plurality of flow guides are provided in a portion of the second tank adjacent to the plurality of the inlet holes respectively to allow water to be rotatably introduced into the second tank through the plurality of the inlet holes, wherein the plurality of flow guides are curved from the plurality of the inlet holes toward the center portion of the second tank respectively.
Method for operating a reciprocating piston engine, wherein the reciprocating piston engine comprises a reciprocating piston and a working chamber delimited by the moving piston, in that a pressurised gas (G D) under a gas pressure (P D) is supplied to the working chamber via a controllable rotary slide valve and the rotary slide valve is then closed by moving the piston to a bottom dead centre (P 1) and in so doing the pressurised gas (G D) present in the working chamber is expanded in the working chamber, in that the piston is moved towards a top dead centre (P 3) and gas is therewith discharged from the working chamber via a second valve, the second valve being closed at a second valve closing angle (P 2) at which a residual quantity of gas (G R) is present in the working chamber, in that the piston is moved further towards the top dead centre (P 3), so that the residual gas quantity (G R) in the working chamber is compressed and the pressure difference present across the closed rotary slide valve is reduced, and wherein the rotary slide valve comprises a valve seat with a passage opening and a closing element for closing the passage opening, characterised in that the second valve closing angle (P 2) is selected in such a way that the residual gas quantity (G R) in the working chamber in the region of the top dead centre (P 3) has a gas pressure which exceeds the gas pressure (P D) of the compressed gas (G D) when the rotary slide valve is closed, in that the closing element of the rotary slide valve is automatically lifted with respect to the valve seat in the region of the top dead centre (P 3) on account of the gas pressure of the residual gas quantity (G R), and in that the closing element of the rotary slide valve is rotated in a controlled manner after being automatically lifted from the valve seat, and the passage opening is released.
A refractive objective lens assembly comprising: a passively athermal anamorphic lens group including at least a first cylindrical lens having a surface optically powered in a first dimension, the first anamorphic lens group being positioned to receive thermal infrared radiation along an optical path; a focus cell positioned along the optical path to receive the thermal infrared radiation from the anamorphic lens group, the focus cell including a first group of lenses each having a rotationally symmetric surface optically powered in both the first dimension and a second dimension orthogonal to the first dimension; a relay lens group positioned along the optical path to receive the thermal infrared radiation from the focus cell, the relay lens group including a second group of lenses each having a rotationally symmetric surface optically powered in both the first dimension and the second dimension, wherein the second group of lenses includes a third lens, a fourth lens, and a fifth lens each formed from a first material, and a sixth lens and a seventh lens each formed from a second material, the second group of lenses arranged so as to alternate between the lenses of the first material and the lenses of the second material; and a dewar assembly positioned along the optical path, the dewar assembly including a cold stop and an optical detector, the cold stop being positioned to receive the thermal infrared radiation from the relay lens group and to direct the thermal infrared radiation to the optical detector. a passively athermal anamorphic lens group including at least a first cylindrical lens having a surface optically powered in a first dimension, the first anamorphic lens group being positioned to receive thermal infrared radiation along an optical path; a focus cell positioned along the optical path to receive the thermal infrared radiation from the anamorphic lens group, the focus cell including a first group of lenses each having a rotationally symmetric surface optically powered in both the first dimension and a second dimension orthogonal to the first dimension; a relay lens group positioned along the optical path to receive the thermal infrared radiation from the focus cell, the relay lens group including a second group of lenses each having a rotationally symmetric surface optically powered in both the first dimension and the second dimension, wherein the second group of lenses includes a third lens, a fourth lens, and a fifth lens each formed from a first material, and a sixth lens and a seventh lens each formed from a second material, the second group of lenses arranged so as to alternate between the lenses of the first material and the lenses of the second material; and a dewar assembly positioned along the optical path, the dewar assembly including a cold stop and an optical detector, the cold stop being positioned to receive the thermal infrared radiation from the relay lens group and to direct the thermal infrared radiation to the optical detector.
A method for toggling a clocked flyback converter circuit, wherein the flyback converter circuit comprises a transformer with a primary winding and a secondary winding and by means of the transformer electrical energy is transmitted from a primary side connected with the primary winding to a secondary side connected with the secondary winding, wherein the primary side is clocked with a switch, and wherein a current (I s) through the switch is monitored, characterized by the steps detect, when after a deactivation of the switch the current (I s) has reached a predefined current value, and turn the switch on again, if the current has reached the redefined current value.
An expandable medical device comprising: a surface (102; 102'); and a compressible coating disposed on at least a portion of the surface (102; 102'), comprising (a) a first layer (104; 104; 124) comprising a first porous matrix having a compressibility of at least 10 %, and (b) a plurality of therapeutic agent-encapsulating capsules (106, 108; 106', 108'; 126, 128) embedded within the first layer (104; 104; 124), wherein the plurality of capsules (106, 108; 106', 108'; 126, 128) comprises a first population of capsules (106; 108'; 126) having a first critical pressure of capsule rupture and encapsulating a first therapeutic agent (112; 114'; 132), and a second population (108; 106'; 128) of capsules having a second critical pressure of capsule rupture greater than the first critical pressure of capsule rupture, and encapsulating a second therapeutic agent (114; 112'; 134), characterized in that the first therapeutic agent (112; 114'; 132) and the second therapeutic agent (114; 112'; 134) are the same therapeutic agent. a surface (102; 102'); and a compressible coating disposed on at least a portion of the surface (102; 102'), comprising (a) a first layer (104; 104; 124) comprising a first porous matrix having a compressibility of at least 10 %, and (b) a plurality of therapeutic agent-encapsulating capsules (106, 108; 106', 108'; 126, 128) embedded within the first layer (104; 104; 124), wherein the plurality of capsules (106, 108; 106', 108'; 126, 128) comprises a first population of capsules (106; 108'; 126) having a first critical pressure of capsule rupture and encapsulating a first therapeutic agent (112; 114'; 132), and a second population (108; 106'; 128) of capsules having a second critical pressure of capsule rupture greater than the first critical pressure of capsule rupture, and encapsulating a second therapeutic agent (114; 112'; 134), (a) a first layer (104; 104; 124) comprising a first porous matrix having a compressibility of at least 10 %, and (b) a plurality of therapeutic agent-encapsulating capsules (106, 108; 106', 108'; 126, 128) embedded within the first layer (104; 104; 124), wherein the plurality of capsules (106, 108; 106', 108'; 126, 128) comprises a first population of capsules (106; 108'; 126) having a first critical pressure of capsule rupture and encapsulating a first therapeutic agent (112; 114'; 132), and a second population (108; 106'; 128) of capsules having a second critical pressure of capsule rupture greater than the first critical pressure of capsule rupture, and encapsulating a second therapeutic agent (114; 112'; 134), characterized in that the first therapeutic agent (112; 114'; 132) and the second therapeutic agent (114; 112'; 134) are the same therapeutic agent.
Structure comprising a tendon that has a casing tube, the tendon being anchored to the structure by means of an anchoring device, characterised in that the structure has a device which is designed and intended for de-icing the surface of a casing tube of a tendon, which tube is subject to the effects of weather, and/or for guarding against, if not preventing, said tube from icing over, the device comprising a force apparatus which at one end is in force-transmitting engagement with the anchoring device or with a part (112, 113) that is connected to said device in an operationally stable manner, and at the other end is in force-transmitting engagement with the casing tube or with a part that is connected to said tube in an operationally stable manner, which apparatus is also designed and intended for moving the casing tube relative to the anchoring device in the circumferential direction with respect to the longitudinal extension direction of the casing tube.
A prosthetic assembly comprising: a body portion; first and second flanges (14, 16) provided on a rim of the body portion; the first and second flanges (14, 16) being provided with first and second openings (20, 22) respectively; and a separate bridging member connected by first and second securing means to the first and second flanges (14, 16) such that the member spans between the first and second flanges (14, 16), the member being provided with a third opening; wherein the first, second and third openings (20, 22, 26) are suitable for receiving first, second and third bone attachment means (28, 30, 32) respectively. a body portion; first and second flanges (14, 16) provided on a rim of the body portion; the first and second flanges (14, 16) being provided with first and second openings (20, 22) respectively; and a separate bridging member connected by first and second securing means to the first and second flanges (14, 16) such that the member spans between the first and second flanges (14, 16), the member being provided with a third opening; wherein the first, second and third openings (20, 22, 26) are suitable for receiving first, second and third bone attachment means (28, 30, 32) respectively.
Dishwasher comprising a movable door, an opening mechanism (103, 104) being provided, a decorative panel being resiliently mounted on the door and a sensor (9, 90) being provided for sensing a relative movement of the decorative panel with respect to the door, operating and display elements being arranged on an upper end face of the door and/or the door comprising a handle element or a recessed handle on the upper end face thereof, characterised in that the sensor (9, 90) is provided for sensing when the decorative panel is pressed inwards, and in that an opening drive (105, 106) can be triggered by means of the sensor (9, 90) in order to move the door from a closed position into an at least partially open position.
D.c. voltage switching device with at least one electrical input and also at least one electrical output, and also with at least a first switching contact and a movable jumper, wherein the d.c. voltage switching device has furthermore an arc quenching arrangement, wherein the arc quenching arrangement has at least a first arc chute, which has a plurality of splitter plates, characterised in that only a first splitter plate of the splitter plates is U-shaped, and that a first limb of the U-shaped first splitter plate is conductively connected with the electrical output, wherein a Lorentz force acts in the direction of the splitter plates on arcs caused by a switching operation in the first arc chute.
A vehicle steering system that includes: a steering mechanism having a steering member that is subjected to multiple rotation operation for steering and a steering angle detection sensor; a steered mechanism that is not mechanically coupled to the steering mechanism; and a control unit that controls a steered system motor of the steered mechanism, the vehicle steering system comprising a rotation restriction mechanism that restricts a rotation amount of the steering member such that the rotation amount is equal to or smaller than a predetermined angle, characterized in that the rotation restriction mechanism includes: a rotatable element that is coaxially rotatable together with a rotary shaft of the steering member; a non-rotatable element that faces the rotatable element in an axial direction of the rotary shaft; at least one plate element that is interposed between the rotatable element and the non-rotatable element, that is coaxially supported by the rotary shaft, and that is rotatable with respect to the rotary shaft; and a coupling element (71a-75a, 71b-75b) that couples adjacent elements among the non-rotatable element, the at least one plate element and the rotatable element so as to restrict an amount of relative rotation between the adjacent elements, a light projecting unit (91, 92) is provided at one of the rotatable element and the non-rotatable element, a light receiving unit (101, 102) is provided at the other one of the rotatable element and the non-rotatable element, and the at least one plate element is arranged so as to block light that is emitted from the light projecting unit (91, 92) toward the light receiving unit (101, 102), and has a light transmission portion (93, 94) that allows transmission of light that is emitted from the light projecting unit (91, 92) and that enters the light receiving unit (101, 102) when a rotation angle of the at least one plate element is a predetermined angle.
A method for controlling a robot by a controller, wherein the robot comprises a plurality of motors, the method performed by the controller comprising: obtaining parameters of the plurality of motors, the parameters being associated with the robot to be controlled by the controller; retrieving, based on obtained parameters, models of the plurality of motors from a database accessible to the controller; determining a first identity of the robot based on the parameters comprising determining the first identity from the retrieved models; comparing the first identity with a pre-stored second identity; and in response to the first identity matching the second identity, controlling operations of the robot with the controller, wherein obtaining the parameters of the plurality of motors comprises: sending at least one excitation signal to the plurality of motors of the robot from the controller; receiving the feedback signals that are provided by the plurality of motors in response to the at least one excitation signal; and determining the parameters of the plurality of motors based on the feedback signals and the at least one excitation signal. obtaining parameters of the plurality of motors, the parameters being associated with the robot to be controlled by the controller; retrieving, based on obtained parameters, models of the plurality of motors from a database accessible to the controller; determining a first identity of the robot based on the parameters comprising determining the first identity from the retrieved models; comparing the first identity with a pre-stored second identity; and in response to the first identity matching the second identity, controlling operations of the robot with the controller, wherein obtaining the parameters of the plurality of motors comprises: sending at least one excitation signal to the plurality of motors of the robot from the controller; receiving the feedback signals that are provided by the plurality of motors in response to the at least one excitation signal; and determining the parameters of the plurality of motors based on the feedback signals and the at least one excitation signal. sending at least one excitation signal to the plurality of motors of the robot from the controller; receiving the feedback signals that are provided by the plurality of motors in response to the at least one excitation signal; and determining the parameters of the plurality of motors based on the feedback signals and the at least one excitation signal.
A refrigeration unit and a respective control and management assembly, comprising a refrigeration assembly and at least one power input for its electrical power supply, said refrigeration unit comprising at least one signal input and at least one control switch, arranged along a power line which corresponds to said power input and controls it, the data that arrive from the respective said signal input being suitable for driving said control switch for consequently determining the presence/absence of electrical power supply for said refrigeration assembly, wherein the data supplied to said signal input originate from a sensor for detecting the presence of at least one person in the vicinity of said refrigeration unit, characterized in that the detection of the presence of the at least one person causes the sending of a driving signal which is adapted to open said control switch to cause lack of electrical power supply to said refrigeration assembly, the detection of the absence of the at least one person causing the sending of a driving signal which is adapted to close said control switch to provide electrical power supply to said refrigeration assembly.
Semiconductor circuit assembly with a housing for a circuit substrate, which has semiconductor components and is provided on a cooling body, characterized in that the housing is formed in one piece with pressure elements, wherein the pressure elements of the housing are respectively formed with a cavity for an associated pressure body, wherein the pressure bodies protrude with a head portion from the respectively associated cavity, wherein the pressure bodies consist exclusively of a material that has a greater coefficient of thermal expansion than the coefficient of thermal expansion of the material of the housing.