mhurhangee/ep-ind-claims huggingface dataset:
A spark plug comprising a center electrode (20, 20', 20", 20"", 20""') and a ground electrode (30, 30') which forms a gap between the ground electrode (30, 30') and the center electrode (20, 20', 20", 20"", 20""'), wherein, when a side toward the gap is taken as a front side of the center electrode (20, 20', 20", 20"", 20""') or the ground electrode (30, 30'), at least one of the center electrode (20, 20', 20", 20"", 20""') and the ground electrode (30, 30') has a cover portion (21, 21', 21", 21"", 21""', 321) and a core portion (25, 25', 25", 25"", 25""', 325) covered with the cover portion (21, 21', 21", 21"", 21""', 321) and formed of a material having a thermal expansion coefficient different from a thermal expansion coefficient of the cover portion (21, 21', 21", 21"", 21""', 321), the core portion (25, 25', 25", 25"", 25""', 325) of the at least one electrode has a concave portion and a convex portion formed at a front end thereof, characterized in that the convex portion is such that, in a cross section passing through a barycenter of a front surface of the electrode and also passing through the convex portion, an area of the convex portion delimited by a line perpendicular to a bisector of the convex portion and passing through a point 0.2 mm shifted from a front end of the convex portion in a direction of the bisector is smaller than an area of a triangle formed by connecting the front end of the convex portion and intersections of the line perpendicular to the bisector and a contour of the convex portion.
A method for producing abrasive air-laid non-woven cloth, comprising: (a) forming a non-woven web of fibers including at least a first layer adjacent to a first surface of the web containing at least 5% by weight of thermoplastic fibers, and at least a second layer adjacent to a second surface of the web; and (b) feeding said web to i. a water entanglement bonding system employing water jets to cause entanglement of fibers in the web; ii. a patterning system so as to generate a pattern of raised regions and lowered regions in said first surface; and iii. a drying system to perform heat treatment on said web sufficient to cause at least part of said thermoplastic fibers to undergo changes in physical morphology, thereby imparting abrasive properties to at least said raised regions of said first surface, wherein said patterning is implemented so as to cause migration of a majority of fibers making up said first layer in said lowered regions to said raised regions, wherein said second layer primarily contains fibers which do not undergo changes in physical morphology under said heat treatment. (a) forming a non-woven web of fibers including at least a first layer adjacent to a first surface of the web containing at least 5% by weight of thermoplastic fibers, and at least a second layer adjacent to a second surface of the web; and (b) feeding said web to i. a water entanglement bonding system employing water jets to cause entanglement of fibers in the web; ii. a patterning system so as to generate a pattern of raised regions and lowered regions in said first surface; and iii. a drying system to perform heat treatment on said web sufficient to cause at least part of said thermoplastic fibers to undergo changes in physical morphology, thereby imparting abrasive properties to at least said raised regions of said first surface, wherein said patterning is implemented so as to cause migration of a majority of fibers making up said first layer in said lowered regions to said raised regions, wherein said second layer primarily contains fibers which do not undergo changes in physical morphology under said heat treatment. i. a water entanglement bonding system employing water jets to cause entanglement of fibers in the web; ii. a patterning system so as to generate a pattern of raised regions and lowered regions in said first surface; and iii. a drying system to perform heat treatment on said web sufficient to cause at least part of said thermoplastic fibers to undergo changes in physical morphology, thereby imparting abrasive properties to at least said raised regions of said first surface, wherein said patterning is implemented so as to cause migration of a majority of fibers making up said first layer in said lowered regions to said raised regions, wherein said second layer primarily contains fibers which do not undergo changes in physical morphology under said heat treatment.
A system for printing a three-dimensional object, comprising: a first network interface to obtain a 3D model from a client system; a second network interface; a print bureau data collection engine to identify capabilities of a plurality of print bureaus; a print bureau filter to compare characteristics of the 3D model with the capabilities of the plurality of print bureaus to identify a subset of the plurality of print bureaus that are able to print the 3D model and send the subset to the client system via the first network interface to enable one of the print bureaus from the subset to print the 3D model; a printability check engine to automatically process the 3D model to determine if the 3D model is printable; and a model repair engine to modify the 3D model to correct any detected defects in the 3D model; wherein the printability check engine is configured to launch the model repair engine if the printability check engine determines that the 3D model is not printable, wherein enabling one of the print bureaus from the subset to print the 3D model comprises: receiving, by the first network interface, from the client system an identification of a selected print bureau among said sent subset, and uploading, by the second network interface, to said selected print bureau either the 3D model, if the 3D model is determined printable, or the modified 3D model, if the 3D model is determined not printable. a first network interface to obtain a 3D model from a client system; a second network interface; a print bureau data collection engine to identify capabilities of a plurality of print bureaus; a print bureau filter to compare characteristics of the 3D model with the capabilities of the plurality of print bureaus to identify a subset of the plurality of print bureaus that are able to print the 3D model and send the subset to the client system via the first network interface to enable one of the print bureaus from the subset to print the 3D model; a printability check engine to automatically process the 3D model to determine if the 3D model is printable; and a model repair engine to modify the 3D model to correct any detected defects in the 3D model; wherein the printability check engine is configured to launch the model repair engine if the printability check engine determines that the 3D model is not printable, wherein enabling one of the print bureaus from the subset to print the 3D model comprises: receiving, by the first network interface, from the client system an identification of a selected print bureau among said sent subset, and uploading, by the second network interface, to said selected print bureau either the 3D model, if the 3D model is determined printable, or the modified 3D model, if the 3D model is determined not printable. receiving, by the first network interface, from the client system an identification of a selected print bureau among said sent subset, and uploading, by the second network interface, to said selected print bureau either the 3D model, if the 3D model is determined printable, or the modified 3D model, if the 3D model is determined not printable.
A semiconductor module comprising a substrate, a conducting member, a semiconductor element, wherein the semiconductor element is arranged on the substrate, wherein the conducting member is bonded to an upper-side electrode of the semiconductor element, wherein the conducting member is provided with a structure having flexibility and is thereby capable of, in a junction with the semiconductor element, reducing thermal stress due to difference in a coefficient of linear expansion between the conducting member and the semiconductor element, and absorbing dimensional error in objects to be connected, comprising a cooling surface structural part which is configured as a part of the surface of the substrate; wherein the cooling surface structural part is bonded to the substrate, and is electrically connected to the upper side electrode of the semiconductor element only by the conductive member; characterized in that the conducting member is configured to electrically connect the semiconductor element with another electronic component, wherein the cooling surface structural part is electrically connected to the other electronic component; wherein the substrate is actively cooled; wherein the cooling surface structural part is disposed on the actively cooled substrate such that the conducting member is able to absorb dimensional error in a height direction between the semiconductor element and the cooling surface structural part, so that residual stress is suppressed, and the semiconductor element is cooled through the conducting member to improve heat radiating properties. wherein the cooling surface structural part is bonded to the substrate, and is electrically connected to the upper side electrode of the semiconductor element only by the conductive member; characterized in that the conducting member is configured to electrically connect the semiconductor element with another electronic component, wherein the cooling surface structural part is electrically connected to the other electronic component; wherein the substrate is actively cooled; wherein the cooling surface structural part is disposed on the actively cooled substrate such that the conducting member is able to absorb dimensional error in a height direction between the semiconductor element and the cooling surface structural part, so that residual stress is suppressed, and the semiconductor element is cooled through the conducting member to improve heat radiating properties.
A windscreen wiper device comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade is of the flat blade type and includes at least one longitudinal groove, in which groove a longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm, wherein said oscillating arm is pivotally connected to said connecting device about a pivot axis near a free end thereof, with the interposition of a joint part, wherein said joint part comprises at least one resilient tongue engaging in a correspondingly shaped hole provided in said oscillating arm, and wherein said resilient tongue is rotatable along an hinge axis between an outward position retaining the wiper blade onto the oscillating arm and an inward position releasing the wiper blade from the oscillating arm, wherein said oscillating arm has an at least substantially U-shaped cross-section at the location of its connection to said joint part, wherein at least one leg of said U-shaped cross-section of said oscillating arm comprises an inwardly extending protrusion cooperating with a bottom surface of a side wall of said joint part near an extremity of said joint part facing away from said free end of said oscillating arm, wherein said joint part and said oscillating arm are assembled only by a linear movement of said joint part towards said oscillating arm in a longitudinal direction parallel to a longitudinal axis of said oscillating arm until said resilient tongue engages inside said hole provided in said oscillating arm, wherein said joint part is detachably attached to said connecting device by pivotally engaging projections of said connecting device, at the location of said pivot axis, in recesses provided in said joint part, characterised in that said protrusion cooperates with an elevated part of said bottom surface of said side wall of said joint part.
An anti-ERG1 molecule comprising a Heavy chain Variable domain having SEQ ID NO:3 and a Light chain Variable domain having SEQ ID NO:4, said molecule having specificity against hERG1 S5-pore extracellular portion, wherein said anti-ERG1 molecule is a Single Chain Variable Fragment (scFV).
A computer-implemented method of instantiating a machine learning model with a host processing system comprising a trusted execution environment and an untrusted processing system, the method comprising: preparing, with the host processing system, a compiler encoding an architecture of the machine learning model; receiving, from a client processing system, source data; producing, with the compiler, software based on the received source data and model parameters stored on the host processing system, the software comprising an untrusted software component for performance on the UPS and a trusted software component for performance on the TEE, wherein the untrusted software component and the trusted software component are configured to, when performed in concert, instantiate the machine learning model: and attesting, with the TEE and to the client processing system, integrity of the compiler based on receiving a request, from the client processing system, to process the source data with the machine learning model. preparing, with the host processing system, a compiler encoding an architecture of the machine learning model; receiving, from a client processing system, source data; producing, with the compiler, software based on the received source data and model parameters stored on the host processing system, the software comprising an untrusted software component for performance on the UPS and a trusted software component for performance on the TEE, wherein the untrusted software component and the trusted software component are configured to, when performed in concert, instantiate the machine learning model: and attesting, with the TEE and to the client processing system, integrity of the compiler based on receiving a request, from the client processing system, to process the source data with the machine learning model.
An apparatus for the slicing of food products, in particular a high-performance slicer, comprising at least one cutting blade, in particular a scythe-like blade, rotating about an axis of rotation and having an imbalance; a rotary drive for the cutting blade; and a counterweight comprising at least two balance masses (32, 34) axially spaced apart from one another for compensating the imbalance of the cutting blade, wherein a first balance mass and the imbalance of the cutting blade act at least approximately in opposite radial directions, and wherein the first balance mass is arranged closer to the cutting blade in the axial direction than a second balance mass, characterized in that the second balance mass acts at least approximately in the same radial direction as the imbalance of the cutting blade.
A colorless varnish for digital printing, comprising: a colorless paste, including: a non-polar carrier fluid; and a resin swollen in the non-polar carrier fluid, the resin present in the paste in an amount ranging from about 20% (w/w) to about 50% (w/w); and a solid polar compound dispersed in the resin, and present in an amount up to 60 wt.% of solids in the colorless paste; wherein the solid polar compound is selected from the group consisting of a saccharide, polyacrylic acid, polyvinyl alcohol, styrene maleic anhydride, a bismaleimide oligomer, a cellulose derivative, and an aliphatic urethane acrylate. a colorless paste, including: a non-polar carrier fluid; and a resin swollen in the non-polar carrier fluid, the resin present in the paste in an amount ranging from about 20% (w/w) to about 50% (w/w); and a non-polar carrier fluid; and a resin swollen in the non-polar carrier fluid, the resin present in the paste in an amount ranging from about 20% (w/w) to about 50% (w/w); and a solid polar compound dispersed in the resin, and present in an amount up to 60 wt.% of solids in the colorless paste; wherein the solid polar compound is selected from the group consisting of a saccharide, polyacrylic acid, polyvinyl alcohol, styrene maleic anhydride, a bismaleimide oligomer, a cellulose derivative, and an aliphatic urethane acrylate.
A rear wall for a drawer, having a plate extending substantially across the entire width of the drawer, wherein the rear wall in the mounted position is held in the region of drawer side walls (54, 55) of the drawer by rear wall holders (21, 22), wherein the rear wall holders (21, 22) are connected to the drawer side walls (54, 55), characterised in that at the outside the rear wall has at least one, preferably at least two, additional stiffening device separate from the rear wall holders (22, 23) for increasing the stability of the plate, which can be connected - preferably detachably - to the plate, wherein a fixing position of the at least one stiffening device is freely selectable along the width of the plate.
A system for affixing a pattern at a unique predetermined location on a substrate, said system comprising, on the one hand, a transfer means to which said pattern is removably attached, and on the other hand, a pressing means for pressing against the substrate the transfer means and the pattern attached to the latter, said system being characterized in that it comprises a means for aiding in the positioning of the pattern at said unique predetermined location on the substrate, said positioning aiding means comprising a first member mounted integral with the substrate or with the pressing means and a second member mounted integral with the transfer means, said first and second members (7, 9) being designed in such a manner that a cooperation is established between them when they are brought into correspondence with each other, preventing them from moving away from each other.
A fluororubber composition comprising 30 to 60 parts by weight of a wollastonite having an average particle diameter of 5 μm or less, an average particle length of 40 to 60 μm, and an aspect ratio of 10 to 12, based on 100 parts by weight of fluororubber.
A method for determining the void fraction of a multi-phase system of at least one substance in a channel, the method comprising - measuring a void fraction dependent parameter of the multi-phase system, - obtaining a flow regime of the multi-phase system, said obtaining a flow regime comprising obtaining at least one multi-phase structure characteristic for the flow regime, the multi-phase structure being a spatial distribution of the phases of a multi-phase system at one moment in time in the cross section of a channel, - obtaining a set of one or more relationships, specific for the obtained flow regime, between the void fraction dependent parameter and the void fraction, each of the relationships within one set corresponding to each of the obtained at least one multi-phase structures characteristic for the obtained flow regime, - determining an occurring multi-phase structure, - determining the void fraction of the multi-phase system taking into account the relationship between the void fraction dependent parameter and the void fraction for the determined occurring multi-phase structure. - measuring a void fraction dependent parameter of the multi-phase system, - obtaining a flow regime of the multi-phase system, said obtaining a flow regime comprising obtaining at least one multi-phase structure characteristic for the flow regime, the multi-phase structure being a spatial distribution of the phases of a multi-phase system at one moment in time in the cross section of a channel, - obtaining a set of one or more relationships, specific for the obtained flow regime, between the void fraction dependent parameter and the void fraction, each of the relationships within one set corresponding to each of the obtained at least one multi-phase structures characteristic for the obtained flow regime, - determining an occurring multi-phase structure, - determining the void fraction of the multi-phase system taking into account the relationship between the void fraction dependent parameter and the void fraction for the determined occurring multi-phase structure.
Device for heating preforms, comprising a microwave heating device for heating the preforms which has a microwave generator and a microwave conductor, and comprising a transport device which transports the preforms, wherein the device comprises a further heating device which heats the preforms, wherein the further heating device is a pre-heating unit which is arranged upstream of the microwave heating device in the transport direction of the preforms, wherein the heating device comprises an air supply unit (6, 7) which acts upon the preforms with a heated air flow, characterised in that the further heating device is designed in such a way that primarily an outer wall of the preforms can be heated by means of air guided towards an outer wall of the preforms.
An intelligent cabinet system, comprising: a first object; a second object movable relative to the first object a locking mechanism (26, 200, 300, 400, 500) comprising a locking member (42, 207, 307, 407, 507); and a controller configured to communicate with an electronic device for receiving a first control signal from the electronic device; wherein the second object is movable relative to the first object from a retracted position to an open position; wherein when the electronic device transmits the first control signal to the controller, and when the second object is moved relative to the first object from the retracted position along an opening direction, the controller is configured to control the locking member (42, 207, 307, 407, 507) of the locking mechanism (26, 200, 300, 400, 500) to move from a first predetermined position to a second predetermined position according to the first control signal, in order to block the second object at a predetermined extension position by the locking member (42, 207, 307, 407, 507); characterized in that the predetermined extension position is located between the retracted position and the open position. a first object; a second object movable relative to the first object a locking mechanism (26, 200, 300, 400, 500) comprising a locking member (42, 207, 307, 407, 507); and a controller configured to communicate with an electronic device for receiving a first control signal from the electronic device; wherein the second object is movable relative to the first object from a retracted position to an open position; wherein when the electronic device transmits the first control signal to the controller, and when the second object is moved relative to the first object from the retracted position along an opening direction, the controller is configured to control the locking member (42, 207, 307, 407, 507) of the locking mechanism (26, 200, 300, 400, 500) to move from a first predetermined position to a second predetermined position according to the first control signal, in order to block the second object at a predetermined extension position by the locking member (42, 207, 307, 407, 507); characterized in that the predetermined extension position is located between the retracted position and the open position.