mhurhangee/ep-ind-claims huggingface dataset:
Lock profile, with an upper part and a lower part, in particular a lock profile for equipping if required with a door opener, for a door lock, wherein, if a door opener is not present, the upper part is provided, wherein, if the upper part is used, the upper part has a blocking nose, and the door lock comprises a retractable lock latch bolt, which in the projecting locking position engages through a passage opening in the profile front side and engages behind the blocking nose, arranged in the passage opening is at least one sliding web, angled at a predetermined inclination angle away from an opening edge, for the lock latch bolt, which engages through a latch bolt cut-out opening of the upper part, characterized in that the sliding web is arranged as one piece on the lower part, which is located underneath the lock profile and provides a securing receiver element for the upper part.
A front panel for a drawer, the front panel being formed by at least one decorative plate and frame for receiving the decorative plate, wherein the decorative plate is at least partially received within the frame in a mounted condition and wherein the frame includes at least one locking portion (14a, 14b) for releasably locking the front panel to a drawer sidewall, wherein at least one holding device (16a, 16b) is arranged on at least one end portion of the decorative plate, the at least one holding device (16a, 16b) being configured to receive the at least one end portion of the decorative plate, being separate from the decorative plate and the frame and being configured to be releasably connected to the frame, characterized in that the holding device (16a, 16b) includes at least two components (19, 20) configured to be displaceable relative to one another, wherein a first component is configured to receive the end portion of the decorative plate and a second component is configured to be fixed to the frame, wherein the two components (19, 20) are pre-stressed relative to one another by at least one force storage member.
A hybrid epoxy resin adduct comprising the reaction product of: a material selected from the group consisting of a hybrid polyfunctional aliphatic epoxy resin, a hybrid cycloaliphatic epoxy resin, and combinations thereof; wherein is formed by contacting: (a) a hydroxyl-containing material selected from the group consisting of an aliphatic hydroxyl-containing material, a cycloaliphatic hydroxyl-containing material, and combinations thereof; (b) a material selected from the group consisting of a monoglycidyl ether-containing material, a diglycidyl ether-containing material, and combinations thereof wherein (b) is prepared from a different precursor than (a); (c) an epihalohydrin; (d) a basic acting substance; (e) a non-Lewis acid catalyst; and (f) optionally, a solvent; and at least one epoxide reactive compound comprising one or more compounds having two or more epoxide-reactive hydrogen atoms per molecule; and optionally further comprising: an epoxy resin compound different from compound; wherein the ratio of the reactive compound and the H-PACE resin is from 2:1 to 100:1 equivalents of the reactive hydrogen atom in the reactive compound per equivalent of epoxide group in the H-PACE resin and epoxy resin compound, if used. a material selected from the group consisting of a hybrid polyfunctional aliphatic epoxy resin, a hybrid cycloaliphatic epoxy resin, and combinations thereof; wherein is formed by contacting: (a) a hydroxyl-containing material selected from the group consisting of an aliphatic hydroxyl-containing material, a cycloaliphatic hydroxyl-containing material, and combinations thereof; (b) a material selected from the group consisting of a monoglycidyl ether-containing material, a diglycidyl ether-containing material, and combinations thereof wherein (b) is prepared from a different precursor than (a); (c) an epihalohydrin; (d) a basic acting substance; (e) a non-Lewis acid catalyst; and (f) optionally, a solvent; and (a) a hydroxyl-containing material selected from the group consisting of an aliphatic hydroxyl-containing material, a cycloaliphatic hydroxyl-containing material, and combinations thereof; (b) a material selected from the group consisting of a monoglycidyl ether-containing material, a diglycidyl ether-containing material, and combinations thereof wherein (b) is prepared from a different precursor than (a); (c) an epihalohydrin; (d) a basic acting substance; (e) a non-Lewis acid catalyst; and (f) optionally, a solvent; at least one epoxide reactive compound comprising one or more compounds having two or more epoxide-reactive hydrogen atoms per molecule; an epoxy resin compound different from compound;
A cabin attendant seat for an aircraft, the cabin attendant seat comprising: - a backrest element; and - a seat element; wherein the cabin attendant seat is movable from a starting position into at least one end position, and the cabin attendant seat further comprises an adapter element, characterized in that the adapter element protrudes from the outer circumference of the cabin attendant seat in the moving direction for moving the cabin attendant seat from the starting position into the end position, and in that the adapter element is configured to be inserted into a corresponding recess in an aircraft seat, when the cabin attendant seat is in the end position. - a backrest element; and - a seat element;
A foreign matter removal device which removes foreign matters on a lens of an in-vehicle camera attached to a vehicle so that the lens of the in-vehicle camera is exposed toward the outside of a body panel of a vehicle, the foreign matter removal device comprising: a high-pressure air generation unit that includes a generation unit having a drive source and configured to generate high-pressure air using the drive source, and a housing covering the generation unit, characterized by further comprising: a plate-shaped adhesive member (71, 81, 91, 171) that includes an adhesion layer (71B, 81B, 91B, 171B) elastically deformable along at least a part of a surface shape of a panel member constituting the vehicle, wherein the housing is attached to the panel member via the adhesive member (71, 81, 91, 171) in surface contact with the panel member. a high-pressure air generation unit that includes a generation unit having a drive source and configured to generate high-pressure air using the drive source, and a housing covering the generation unit, characterized by further comprising: a plate-shaped adhesive member (71, 81, 91, 171) that includes an adhesion layer (71B, 81B, 91B, 171B) elastically deformable along at least a part of a surface shape of a panel member constituting the vehicle, wherein the housing is attached to the panel member via the adhesive member (71, 81, 91, 171) in surface contact with the panel member. a plate-shaped adhesive member (71, 81, 91, 171) that includes an adhesion layer (71B, 81B, 91B, 171B) elastically deformable along at least a part of a surface shape of a panel member constituting the vehicle, wherein the housing is attached to the panel member via the adhesive member (71, 81, 91, 171) in surface contact with the panel member.
A system for providing accurate location information for a moving mobile device, the system comprising: a location sensor, coupled to the mobile device, that determines an absolute location of the mobile device at a first time; an acceleration detector, coupled to the mobile device, that determines an acceleration magnitude that corresponds to a speed of the mobile device at a time after the first time and before a second time occurring after the location sensor determines the absolute location; a movement direction detector, coupled to the mobile device, that determines a direction of movement of the mobile device at a time after the first time and before the second time; and a sensor fusion module that determines an updated location of the mobile device based on the acceleration magnitude and direction of movement, the updated location relative to the absolute location, the updated location information representing the location of the mobile device at the second time more accurately than the absolute location that is determined by the location sensor, wherein the movement direction detector is a gyroscope, characterised by wherein the sensor fusion module determines information about an external environment of the mobile device al least based on information received from the location sensor, and further comprising. a parameter setting module that sets parameters of the location sensor, the acceleration detector and the gyroscope according to the information about the external environment to optimize overall power consumption for a given operating accuracy. a location sensor, coupled to the mobile device, that determines an absolute location of the mobile device at a first time; an acceleration detector, coupled to the mobile device, that determines an acceleration magnitude that corresponds to a speed of the mobile device at a time after the first time and before a second time occurring after the location sensor determines the absolute location; a movement direction detector, coupled to the mobile device, that determines a direction of movement of the mobile device at a time after the first time and before the second time; and a sensor fusion module that determines an updated location of the mobile device based on the acceleration magnitude and direction of movement, the updated location relative to the absolute location, the updated location information representing the location of the mobile device at the second time more accurately than the absolute location that is determined by the location sensor, wherein the movement direction detector is a gyroscope, characterised by wherein the sensor fusion module determines information about an external environment of the mobile device al least based on information received from the location sensor, and further comprising. a parameter setting module that sets parameters of the location sensor, the acceleration detector and the gyroscope according to the information about the external environment to optimize overall power consumption for a given operating accuracy.
The use of an anode catalyst layer in a proton exchange membrane fuel cell, the anode catalyst layer comprising a carbon monoxide tolerant catalyst material, wherein the catalyst material comprises: (i) a binary alloy of PtX, wherein X is a metal selected from the group consisting of Nb and Ta, and wherein the atomic percentage of platinum in the alloy is from 45 to 80 atomic% and the atomic percentage of X in the alloy is from 20 to 55 atomic%; and (ii) a support material on which the PtX alloy is dispersed; characterized in that the total loading of platinum in the anode catalyst layer is from 0.01 to 0.2 mg/cm 2, and that during operation of the fuel cell an impure hydrogen stream comprising up to 5ppm carbon monoxide is fed to the anode. (i) a binary alloy of PtX, wherein X is a metal selected from the group consisting of Nb and Ta, and wherein the atomic percentage of platinum in the alloy is from 45 to 80 atomic% and the atomic percentage of X in the alloy is from 20 to 55 atomic%; and (ii) a support material on which the PtX alloy is dispersed;
An ophthalmic surgical system for treating eye tissue, the ophthalmic surgical system comprising: a scanner and a laser (10, LS) operable to generate a laser beam for imaging the eye tissue and for cutting the eye tissue; a delivery system for focusing the laser beam; and control electronics (12, CPU) operably coupled to the laser system and to the delivery system, and configured to: operate the laser and the scanner to scan across the lens of the eye tissue with the laser beam so as to generate imaging data; use the imaging data to determine parameters of a cutting pattern for performing an anterior capsulotomy; and operate the laser, the scanner and the delivery system and cause scanning of the laser beam in the cutting pattern, wherein the laser beam is guided by the control electronics based on the imaging data to be focused at multiple focal points in the eye tissue at multiple depths within the eye tissue so as to perform the anterior capsulotomy. a scanner and a laser (10, LS) operable to generate a laser beam for imaging the eye tissue and for cutting the eye tissue; a delivery system for focusing the laser beam; and control electronics (12, CPU) operably coupled to the laser system and to the delivery system, and configured to: operate the laser and the scanner to scan across the lens of the eye tissue with the laser beam so as to generate imaging data; use the imaging data to determine parameters of a cutting pattern for performing an anterior capsulotomy; and operate the laser, the scanner and the delivery system and cause scanning of the laser beam in the cutting pattern, wherein the laser beam is guided by the control electronics based on the imaging data to be focused at multiple focal points in the eye tissue at multiple depths within the eye tissue so as to perform the anterior capsulotomy. operate the laser and the scanner to scan across the lens of the eye tissue with the laser beam so as to generate imaging data; use the imaging data to determine parameters of a cutting pattern for performing an anterior capsulotomy; and operate the laser, the scanner and the delivery system and cause scanning of the laser beam in the cutting pattern, wherein the laser beam is guided by the control electronics based on the imaging data to be focused at multiple focal points in the eye tissue at multiple depths within the eye tissue so as to perform the anterior capsulotomy.
Rectangular baler comprising: a bale chamber (101, 201, 301) adapted to contain one or more bales; a compacting plunger (103, 203, 303) adapted for reciprocating in the bale chamber (101, 201, 301) to advance crop material in a discharge direction towards a discharge opening of the bale chamber (101, 201, 301); a guide system adapted for guiding the reciprocating of the plunger in the bale chamber (101, 201, 301); said guide system comprising at least one guide assembly (131, 132; 231; 331, 332), each guide assembly including a guide element (133, 233, 333); and a threaded shaft (134, 234, 334) and nut (135, 235, 335) for positioning the guide element (133, 233, 333); wherein, for receiving said threaded shaft (134, 234, 334), an elongated slot (140, 240, 340) is provided, characterised in that the elongate slot (140, 240, 340) is extending in a slot direction making an angle (a) between 1 and 85 degrees with respect to the discharge direction; said threaded shaft (134, 234, 334) being arranged in an upright position perpendicular to the slot direction. a bale chamber (101, 201, 301) adapted to contain one or more bales; a compacting plunger (103, 203, 303) adapted for reciprocating in the bale chamber (101, 201, 301) to advance crop material in a discharge direction towards a discharge opening of the bale chamber (101, 201, 301); a guide system adapted for guiding the reciprocating of the plunger in the bale chamber (101, 201, 301); said guide system comprising at least one guide assembly (131, 132; 231; 331, 332), each guide assembly including a guide element (133, 233, 333); and a threaded shaft (134, 234, 334) and nut (135, 235, 335) for positioning the guide element (133, 233, 333); wherein, for receiving said threaded shaft (134, 234, 334), an elongated slot (140, 240, 340) is provided, characterised in that the elongate slot (140, 240, 340) is extending in a slot direction making an angle (a) between 1 and 85 degrees with respect to the discharge direction; said threaded shaft (134, 234, 334) being arranged in an upright position perpendicular to the slot direction.
A wiper apparatus which removes foreign matters from a windshield by rotating by a pivot of a vehicle, the wiper apparatus comprising: an arm piece connected to one end of an arm retainer to connect a wiper blade; and a coupling portion having a step portion formed to extend along a longitudinal direction so that an upper surface of the arm piece and an upper surface of the arm retainer form a same surface when coupled to correspond to a coupling hole formed in the arm retainer, characterized in that a curling plate is formed to further extend in a direction of the arm piece side on a lower side of the coupling hole, thereby tightening and further firmly fixing a lower portion of the step portion through a compression process, in a state in which the coupling portion of the arm piece is inserted into the coupling hole of the arm retainer. an arm piece connected to one end of an arm retainer to connect a wiper blade; and a coupling portion having a step portion formed to extend along a longitudinal direction so that an upper surface of the arm piece and an upper surface of the arm retainer form a same surface when coupled to correspond to a coupling hole formed in the arm retainer, characterized in that a curling plate is formed to further extend in a direction of the arm piece side on a lower side of the coupling hole, thereby tightening and further firmly fixing a lower portion of the step portion through a compression process, in a state in which the coupling portion of the arm piece is inserted into the coupling hole of the arm retainer.
A method for accessing an Internet protocol Multimedia Subsystem, IMS, type subsystem, by a device being firstly connected to a first mobile communication network, as a visited network, characterized in that the method comprises the following steps: - the first network sends to the device a first message comprising current location data relating to a location where the device is currently present; - the device analyses whether at least one roaming rule associated with the current location data is or is not stored within the device, each of the at least one roaming rule including at least one parameter for accessing, through a second mobile communication network, the IMS type subsystem; and - if at least one roaming rule associated with the current location data is stored within the device, then the device sends, through the second mobile communication network, to the IMS type subsystem a second message including a request for connecting to the IMS type subsystem. - the first network sends to the device a first message comprising current location data relating to a location where the device is currently present; - the device analyses whether at least one roaming rule associated with the current location data is or is not stored within the device, each of the at least one roaming rule including at least one parameter for accessing, through a second mobile communication network, the IMS type subsystem; and - if at least one roaming rule associated with the current location data is stored within the device, then the device sends, through the second mobile communication network, to the IMS type subsystem a second message including a request for connecting to the IMS type subsystem.
Hydraulic system of a vehicle, having a first pump for supplying at least one first hydraulic circuit and at least one second pump for supplying at least one second hydraulic circuit with hydraulic medium, wherein the second pump supplies the first hydraulic circuit with hydraulic medium in the emergency mode or when an output pressure of the first pump fails, characterized in that, in the emergency mode or when an output pressure of the first pump fails, a control line of the second pump is connected to the first hydraulic circuit such that the delivery volume of the second pump is controlled according to the load pressure of the first hydraulic circuit.
An ultra-long thermally insulated pipeline, comprising a working steel pipe and an outer sleeve steel pipe sleeving the working steel pipe, wherein an annular vacuum cavity is formed between the working steel pipe and the outer sleeve steel pipe; two ends of the outer sleeve steel pipe are tightened; and the tightened parts of the outer sleeve steel pipe are sealed with an outer wall of the working steel pipe through a plurality of sealing rings; wherein the ultra-long thermally insulated pipeline further comprises: a spiral ring supporting frame which is disposed outside the working steel pipe and is in contact with a wall of the working steel pipe, the spiral ring supporting frame is made of a phase change material, and the phase change material comprises: 20-30 parts by weight of paraffin phase change microcapsules, wherein a capsule core of the paraffin phase change microcapsules is made of paraffin, a capsule wall is made of a polymer of methyl methacrylate and styrene, and a molar ratio of the methyl methacrylate to the styrene is:1; 50-100 parts by weight of elastomer; and 50-100 parts by weight of binder. 20-30 parts by weight of paraffin phase change microcapsules, wherein a capsule core of the paraffin phase change microcapsules is made of paraffin, a capsule wall is made of a polymer of methyl methacrylate and styrene, and a molar ratio of the methyl methacrylate to the styrene is:1; 50-100 parts by weight of elastomer; and 50-100 parts by weight of binder.
A micro-electromechanical device formed from a semiconductor substrate having its layers defining planes along axes x and y, the axis perpendicular to the layers defining an axis z, said device comprising: - at least one anchoring area (4, 14, 24, 34, 44) which is fixed with respect to the substrate, - at least one mobile mass, capable of displacing out of the substrate plane along axis z by rotation around a swivel axis directed along axis x, - at least one deformable element (10, 110, 210, 310, 410), said deformable element (10, 110, 210, 310, 410) connecting the mobile mass to the anchoring area (4, 14, 24, 34, 44), and - at least one means for detecting the displacement of the mobile mass, - said mobile mass having a first portion forming a support structure (8, 18, 28, 38, 48) and a second portion forming the main body (11, 111, 211, 311, 411) of the mobile mass, said first portion (8, 18, 28, 38, 48) being connected to the anchoring area by the deformable element (10, 110, 210, 310, 410), said first and second portions (11, 111, 211, 311, 411) being connected by at least two flexible portions (7, 117, 217, 227, 307, 337, 437) forming decoupling springs fastened to two different sides of said first portion (8, 18, 28, 38, 48); characterized in that it comprises at least one stop (9, 119, 229, 309) limiting the displacement of the second portion (11, 111, 211, 311) of the mobile mass relative to the anchoring area. - at least one anchoring area (4, 14, 24, 34, 44) which is fixed with respect to the substrate, - at least one mobile mass, capable of displacing out of the substrate plane along axis z by rotation around a swivel axis directed along axis x, - at least one deformable element (10, 110, 210, 310, 410), said deformable element (10, 110, 210, 310, 410) connecting the mobile mass to the anchoring area (4, 14, 24, 34, 44), and - at least one means for detecting the displacement of the mobile mass, - said mobile mass having a first portion forming a support structure (8, 18, 28, 38, 48) and a second portion forming the main body (11, 111, 211, 311, 411) of the mobile mass, said first portion (8, 18, 28, 38, 48) being connected to the anchoring area by the deformable element (10, 110, 210, 310, 410), said first and second portions (11, 111, 211, 311, 411) being connected by at least two flexible portions (7, 117, 217, 227, 307, 337, 437) forming decoupling springs fastened to two different sides of said first portion (8, 18, 28, 38, 48);
A compression molded tooth (4,5,8) used for practicing dental cutting treatment characterized by comprising a composition containing a powder or powders of saccharide, polysaccharide, protein, and/or glycoprotein each having a particle size of 1 to 100 μm.