mhurhangee/ep-ind-claims huggingface dataset:
A high-strength hot-rolled steel sheet, having a composition consisting of, by mass% (the same applies to the following for the chemical components.), C: 0.05 to 0.20%, Si: 2.0% or less, Mn: 1.0 to 2.5%, Al: 0.001 to 0.10%, and V: 0.0005 to 0.10%, and further comprising Ti: 0.02 to 0.20% and/or Nb: 0.02 to 0.20% so as to satisfy the following expression 1, and optionally one or more of Cu: 0.01 to 1.0%, Ni: 0.01 to 1.0%, Cr: 0.01 to 1.0%, and Mo: 0.01 to 1.0%, and the balance including iron and inevitable impurities, and having a microstructure comprising, by area ratio based on the total microstructure (the same applies to the following for the microstructure.), ferrite: 50 to 90%, and the balance including martensite + retained austenite, wherein the average particle size of precipitated carbides present in the ferrite is less than 6 nm, and the total content of V, Ti, and Nb forming the precipitated carbides is 0.02% or more: C − 12 × V / 51 + Ti / 48 + Nb / 93 > 0.03 where the symbol of element in the expression means mass%.
A stacked-plate heat exchanger, in particular an oil cooler for motor vehicles, consisting of a block of stacked plates which are stacked onto and into each other, respectively having first and second passage openings in order to form distribution and collecting channels (8, 9), and an outer cover plate (12, 20), wherein the cover plate (12, 20) has a stepped impression (13, 21) in the region of at least one collecting channel, wherein the impression (13, 21) has an annular surface which lies on the outermost stacked plate and is soldered thereto, wherein the outermost stacked plate is soldered to an adjacent stacked plate (2") in the region of the annular surface, characterised in that the cover plate (12, 20) has an embossment (19, 21b) within the annular surface which extends into the collecting channel.
A variable-magnification observation optical system consisting of: an objective system including an erecting system between a first group and a second group that erects an inverted image; and an eyepiece system that allows the erect image formed by the erecting system to be observed through a pupil, wherein the objective system further includes the first group having positive power, the second group having positive power, and a third group having negative power in order from the object side, the eyepiece system includes a fourth group having positive power and a fifth group having positive power in order from the object side, characterized in that zooming from a low magnification end to a large magnification end involves moving the third group and the fourth group in opposite directions along an optical axis while locating an image plane between the third group and the fourth group, the fifth group includes in order from the object side a negative meniscus lens, defined as a Lens 5-1, and a positive lens with an air gap therebetween, the negative meniscus lens having a concave surface facing the object, and the fifth group has at least one aspheric surface, wherein conditional equation is satisfied: 0.5 < Rb + Ra / Rb − Ra < 3.5 wherein Ra: a radius of curvature of the object-side surface of the Lens 5-1, Rb: a radius of curvature of the pupil-side surface of the Lens 5-1. an objective system including an erecting system between a first group and a second group that erects an inverted image; and an eyepiece system that allows the erect image formed by the erecting system to be observed through a pupil, the objective system further includes the first group having positive power, the second group having positive power, and a third group having negative power in order from the object side, the eyepiece system includes a fourth group having positive power and a fifth group having positive power in order from the object side, characterized in that zooming from a low magnification end to a large magnification end involves moving the third group and the fourth group in opposite directions along an optical axis while locating an image plane between the third group and the fourth group, the fifth group includes in order from the object side a negative meniscus lens, defined as a Lens 5-1, and a positive lens with an air gap therebetween, the negative meniscus lens having a concave surface facing the object, and the fifth group has at least one aspheric surface, Ra: a radius of curvature of the object-side surface of the Lens 5-1, Rb: a radius of curvature of the pupil-side surface of the Lens 5-1.
An apparatus for facilitating access to metadata from a device (PDA_1, PDA_2, PDA_3), said apparatus comprising a data store and a wireless communicator (52, 54, 56), said apparatus being configured to generate a metadata resource associated with an item of audio/video material, to store said metadata resource in said data store, to make said stored metadata resource accessible to said device (PDA_1, PDA_2, PDA_3) using said wireless communicator (52, 54, 56), to transmit an alert string to said device (PDA_1, PDA_2, PDA_3) identifying said item of audio/video material for which said metadata resource is available, to receive, using said wireless communicator (52, 54, 56), a query string identifying said item of audio/video material from said device (PDA_1, PDA_2, PDA_3), and to transmit a metadata string describing the content or attributes of an item of said audio/video material to said device (PDA_1, PDA_2, PDA_3), using said wireless communicator (52, 54, 56), wherein the metadata string includes a resource identifier providing a location address of said stored metadata resource to said device (PDA_1, PDA_2, PDA_3), said metadata resource being a proxy version of the audio/video material and said proxy version of the audio/video material able to be accessed by the device (PDA_1, PDA_2, PDA_3) from said location address.
Load carrier for a vehicle, for instance load carrier basket, comprising at least one crossbar which in a mounted state of the load carrier extends in cross direction of the vehicle, and a load stop wherein the load stop is provided on a front end of the load carrier in the longitudinal direction of the load carrier and comprises at least one supporting portion for coupling the load stop to the load carrier, and a stop member with an abutment portion, wherein the stop member is held on the at least one supporting portion by means of a coupling mechanism in such a manner that the stop member is movable between a use position in which the abutment portion is provided such that the goods to be transported on the load carrier can get in contact with the abutment portion, and a non-use position in which the goods to be transported cannot get in contact with the abutment portion, wherein the stop member comprises a supporting surface which, when the stop member is in the non-use position, acts in a supporting plane defined by an uppermost portion of the at least one crossbar for additionally supporting the goods to be transported on the load carrier and/or wherein the stop member does not provide a stop function when the same is in the non-use position and comprises a supporting function which is available when the same is in the non-use position.
The use of hydrophilic polymers of polyacrylic acid or polyacrylate of monovalent cation, crosslinked in proportions of between 50 and 10 000 parts per million, as a rodenticidal active substance.
A stethoscope device comprising: a stethoscope head comprising a mechanical diaphragm for receiving a stethoscopic audio signal from an object; a first ultrasonic transducer for transmitting a first transmitted ultrasonic imaging signal to the object at a first frequency and receiving a first received ultrasonic imaging signal from the object at the first frequency; a second ultrasonic transducer for transmitting a second transmitted ultrasonic imaging signal to the object at a second frequency different from the first frequency and receiving a second received ultrasonic imaging signal from the object at the second frequency, and a control for operating the device in one or more of a stethoscopic mode, an ultrasonic imaging mode, or a non-stethoscopic, non-ultrasonic mode, wherein the first and second ultrasonic transducers are configured to transmit and receive simultaneously with one another, and the stethoscopic device is configured to normalize the first received ultrasonic imaging signal with the second received ultrasonic imaging signal. a stethoscope head comprising a mechanical diaphragm for receiving a stethoscopic audio signal from an object; a first ultrasonic transducer for transmitting a first transmitted ultrasonic imaging signal to the object at a first frequency and receiving a first received ultrasonic imaging signal from the object at the first frequency; a second ultrasonic transducer for transmitting a second transmitted ultrasonic imaging signal to the object at a second frequency different from the first frequency and receiving a second received ultrasonic imaging signal from the object at the second frequency, and a control for operating the device in one or more of a stethoscopic mode, an ultrasonic imaging mode, or a non-stethoscopic, non-ultrasonic mode, wherein the first and second ultrasonic transducers are configured to transmit and receive simultaneously with one another, and the stethoscopic device is configured to normalize the first received ultrasonic imaging signal with the second received ultrasonic imaging signal.
An aircraft comprising: an aerodynamic microstructure (200, 300, 400, 600, 700, 910) on an external surface of the aircraft; sub-microstructures (312, 314, 316, 402, 708, 808, 1008) superimposed on the aerodynamic microstructure, wherein the sub-microstructures are spaced to reduce reflections; wherein spacings between the sub-microstructures (312, 314, 316, 402, 708, 808, 1008) are approximately a wavelength of visible light. an aerodynamic microstructure (200, 300, 400, 600, 700, 910) on an external surface of the aircraft; sub-microstructures (312, 314, 316, 402, 708, 808, 1008) superimposed on the aerodynamic microstructure, wherein the sub-microstructures are spaced to reduce reflections; wherein spacings between the sub-microstructures (312, 314, 316, 402, 708, 808, 1008) are approximately a wavelength of visible light.
Clutch diaphragm for an elastic shaft clutch, for coupling a drive means in a manner which compensates for an axial and/or angular offset and transmits torque, comprising, for example, a drive shaft, with an output means connected downstream along an axis of rotation A R, comprising, for example, an output shaft, wherein it is possible to connect, in a torque-transmitting manner, the clutch diaphragm to the drive means and/or the output means so as to rotate about the axis of rotation A R, wherein the clutch diaphragm has a plurality of openings which are distributed in a direction of circumference U and are separated from one another by resulting radially extending webs, the openings are formed in opening sectors extending in the radial direction R, and the webs are formed in web sectors in extending in the radial direction R in the clutch diaphragm, further comprising a plurality of sensor means in order to carry out a strain measurement and/or tension measurement on the clutch diaphragm such that a conclusion regarding a torque M applied to the shaft clutch is possible, wherein said plurality of sensor means is arranged in the opening sectors on the clutch diaphragm, characterised in that, when observed in the radial direction R of the clutch diaphragm, said plurality of sensor means, each being arranged in an opening sector, is arranged further inwards than the openings relative to the axis of rotation A R. wherein it is possible to connect, in a torque-transmitting manner, the clutch diaphragm to the drive means and/or the output means so as to rotate about the axis of rotation A R, wherein the clutch diaphragm has a plurality of openings which are distributed in a direction of circumference U and are separated from one another by resulting radially extending webs, the openings are formed in opening sectors extending in the radial direction R, and the webs are formed in web sectors in extending in the radial direction R in the clutch diaphragm, further comprising a plurality of sensor means in order to carry out a strain measurement and/or tension measurement on the clutch diaphragm such that a conclusion regarding a torque M applied to the shaft clutch is possible, wherein said plurality of sensor means is arranged in the opening sectors on the clutch diaphragm, characterised in that, when observed in the radial direction R of the clutch diaphragm, said plurality of sensor means, each being arranged in an opening sector, is arranged further inwards than the openings relative to the axis of rotation A R.
A process for assembling a device comprising a first part and a second part, said first part being made of a first material and said second part being made of a second material, said device additionally comprising a third part made of a third material that acts as an intermediate part enabling the assembling, characterized in that said process additionally comprises the following steps: - providing a preform made from the third material, said third material being an at least partially amorphous metal material capable of increasing its volume under temperature and/or pressure conditions; - providing said first and second parts and placing them with the preform between two cavity plates having the negative shape of the final device; - heating the assembly to a temperature between the glass transition temperature Tg and the crystallization temperature Tx of the preform in order to enable, at the latest during this step, the preform to be in the form of an at least partially amorphous metal foam and to enable an expansion of said preform in order to fill the negative shape of the device and form said third part; - cooling the assembly in order to solidify the preform and separate the assembled device from the cavity plates. - providing a preform made from the third material, said third material being an at least partially amorphous metal material capable of increasing its volume under temperature and/or pressure conditions; - providing said first and second parts and placing them with the preform between two cavity plates having the negative shape of the final device; - heating the assembly to a temperature between the glass transition temperature Tg and the crystallization temperature Tx of the preform in order to enable, at the latest during this step, the preform to be in the form of an at least partially amorphous metal foam and to enable an expansion of said preform in order to fill the negative shape of the device and form said third part; - cooling the assembly in order to solidify the preform and separate the assembled device from the cavity plates.
A multiple package of packs of sheet products, wherein the package comprises a box, inside which the packs of sheet products are accommodated; wherein the box is formed by a folded laminar material; characterised in that at least a first portion (25, 27) of the laminar material delimited by first pre-cut lines is adapted to form a first dispenser for at least one of said packs of sheet products; and wherein the first dispenser is obtainable by detaching the first portion of laminar material along the first pre-cut lines from the box and folding it along respective fold lines.
System to balance rotating inertia forces generated by poor distribution of laundry in a rotating drum (5, 15, 24) in a washing machine having the drum (5, 15, 24) placed in a tub (21, 23, 39), the system including a vibration measuring system, a controlling system and a system to generate counteracting forces and provided to regulate the intensity thereof, in order to take into account progressive dewatering of the laundry during a centrifugation phase, the measuring system including a sensor, and the system of generation of counteracting forces of variable intensity comprising a system of pockets open at the minimum radius (3, 33), or watertight pockets, located at a circumference of the drum (5, 15, 24), which may be filled with water via first valves (7, 10) controlled by the control system, and then selectively emptied via second valves (8, 11, 30) also controlled by the control system, so as to generate a rotary force of equal intensity to that produced by the laundry but in the opposite direction and of variable intensity, wherein the opening and closing of the valves (8, 11, 30) are controlled by means of the activation of solenoids (12, 16, 22) which generate electromagnetic forces when the first and second valves (7, 8, 10, 11, 30) to be actuated are passed along and the first and second valves (7, 8, 10, 11, 30) are shutters (13, 17, 35, 134) incorporating ferromagnetic material or permanent magnets (17, 27), which can be attracted or repelled by appropriately reversing the current in the solenoids (12, 16, 22) characterised in that the control system comprising an electronic circuit and processor and a series of said solenoids (12, 16, 22) are located in parallel along the surface of the tub (21, 23, 39).
A method of simultaneously blowing and filling a container from a thermoplastic polymer preform with a carbonated liquid having a defined quantity of dissolved carbon dioxide (CO 2) depending on the carbonated liquid beverage, comprising: - stretching the thermoplastic polymer preform placed within a mould during a stretching phase, - starting an injection phase for injecting said carbonated liquid into the preform, the injection phase starting after the stretching phase has started, the carbonated liquid being at ambient temperature during the process and in that prior to starting the injection phase the carbonated liquid is at a predetermined pressure equal or greater than the partial pressure of the carbon dioxide (CO 2) defined for said carbonated liquid beverage in the container, characterized in that prior to starting the injection phase the method comprises bringing the carbonated liquid to said predetermined pressure equal or greater than the partial pressure of the carbon dioxide (CO 2) defined for said carbonated liquid beverage in the container. - stretching the thermoplastic polymer preform placed within a mould during a stretching phase, - starting an injection phase for injecting said carbonated liquid into the preform, the injection phase starting after the stretching phase has started, the carbonated liquid being at ambient temperature during the process and in that prior to starting the injection phase the carbonated liquid is at a predetermined pressure equal or greater than the partial pressure of the carbon dioxide (CO 2) defined for said carbonated liquid beverage in the container, characterized in that prior to starting the injection phase the method comprises bringing the carbonated liquid to said predetermined pressure equal or greater than the partial pressure of the carbon dioxide (CO 2) defined for said carbonated liquid beverage in the container.
An iron-chromium-aluminum alloy having an elevated high-temperature strength, a low chromium vaporization rate and a good workability, comprising (in % by mass) 2.0 to 4.5 % Al, 12 to 25 % Cr, 1.0 to 4 % W, 0.25 to 2.0 % Nb, 0.05 to 1.2 % Si, 0.001 to 0.70 % Mn, 0.001 to 0.030 % C, 0.0001 to 0.05 % Mg, 0.0001 to 0.03 % Ca, 0.001 to 0.030 % P, max. 0.03 % N, max. 0.01 % S, additionally containing 0.01 to 0.10 %, especially 0.03 - 0.09 % yttrium, 0.01 to 0.10 %, especially 0.02 - 0.08 % hafnium, 0.01 to 0.10 %, especially 0.02-0.08 % zirconium, wherein W can be replaced by 1 to 4 % Mo, wherein Y can be completely or partially replaced by 0.01 to 0.10 % of at least one of the elements Sc and/or La and/or cerium, and wherein Hf or Zr can be completely or partially replaced by 0.01 to 0.1 % of the element Ti, furthermore, if needed, containing max. 1.0 % nickel, max. 1.0 % Co, max. 0.5 % copper, max. 0.1 % vanadium, 0.001 to 0.010 % oxygen and/or 0.0001 - 0.008 % boron, the rest being iron and the usual melting dependent impurities, such as in particular max. 0.002 % Pb, max. 0.002 % Zr and max. 0.002 % Sn, wherein the alloy satisfies the following formulas: 36 % < Cr + 3*(Al + Si) + 4.6*Mo + 5.2*W + 10*Nb, wherein Cr, Al, Si, Mo, W and Nb are the alloy content of these elements in % by mass (formula 1 a). 0.2* Nb ≤ Si ≤ 0.7* Nb, wherein Si and Nb are the alloy content of these elements in % by mass (formula 2). 19 % < Cr +4*Nb + 21.6*Min(Si; 0.5 *Nb), wherein Cr, Si and Nb are the alloy content of these elements in % by mass and Min(Si; 0.5*Nb) is the smaller value of Si and 0.5*Nb (formula 3a). 36 % < Cr + 3*(Al + Si) + 4.6*Mo + 5.2*W + 10*Nb, wherein Cr, Al, Si, Mo, W and Nb are the alloy content of these elements in % by mass (formula 1 a). 0.2* Nb ≤ Si ≤ 0.7* Nb, wherein Si and Nb are the alloy content of these elements in % by mass (formula 2). 19 % < Cr +4*Nb + 21.6*Min(Si; 0.5 *Nb), wherein Cr, Si and Nb are the alloy content of these elements in % by mass and Min(Si; 0.5*Nb) is the smaller value of Si and 0.5*Nb (formula 3a).
An apparatus for the post-processing of components manufactured by additive manufacturing processes, said apparatus comprising a depowdering chamber for the pre-cleaning of the components, in which depowdering chamber a depowdering unit is provided, a chamber for the post-treatment of the components, wherein both chambers (12, 14) can be hermetically sealed, characterized in that the chamber for the post-treatment of the components is a blasting chamber comprising a blasting device for blasting media composed of glass, ceramic material or plastic, in that the depowdering chamber and the blasting chamber are arranged next to one another, in that a partition wall is provided between the two chambers (12, 14) and has a passage opening which can be closed by a flap, and in that the depowdering unit in the depowdering chamber can be closed by a lid which opens in an automated manner. a depowdering chamber for the pre-cleaning of the components, in which depowdering chamber a depowdering unit is provided, a chamber for the post-treatment of the components, wherein both chambers (12, 14) can be hermetically sealed, characterized in that the chamber for the post-treatment of the components is a blasting chamber comprising a blasting device for blasting media composed of glass, ceramic material or plastic, in that the depowdering chamber and the blasting chamber are arranged next to one another, in that a partition wall is provided between the two chambers (12, 14) and has a passage opening which can be closed by a flap, and in that the depowdering unit in the depowdering chamber can be closed by a lid which opens in an automated manner.
Use of a composition for attracting Otiorhynchus weevils, wherein said composition consists of a volatile organic compound of at least 85 % purity selected from the group consisting of -Y-pentenol, methyl eugenol, methyl iso-eugenol, and a combination of said members, wherein X is E or Z, and Y is 1 or 2.
An apparatus, comprising: a substantially horizontally oriented edge deletion table; an edge deletion unit suspended above the edge deletion table, the edge deletion unit comprising a grinding wheel, which is provided vertically proximate to an upper surface of the table, and a nozzle located proximate to the grinding wheel; an aspirator located adjacent to the apparatus; tubing connecting the aspirator to the nozzle of the edge deletion unit, wherein the grinding wheel of the edge deletion unit and the aspirator are arranged so as to cooperate in allowing the apparatus to edge delete a coating supported by a coated article and remove a temporary protective coating provided to the coated article from a common area of interest. a substantially horizontally oriented edge deletion table; an edge deletion unit suspended above the edge deletion table, the edge deletion unit comprising a grinding wheel, which is provided vertically proximate to an upper surface of the table, and a nozzle located proximate to the grinding wheel; an aspirator located adjacent to the apparatus; tubing connecting the aspirator to the nozzle of the edge deletion unit,