mhurhangee/ep-ind-claims huggingface dataset:
A torsional vibration damper for a front end accessory drive comprising: a hub having a shaft-receiving member defining an axis of rotation and a plate extending radially outward about the shaft-receiving member, wherein the plate has a one or more apertures therethrough and terminates with an annular outermost side; a first portion of an inertia member defining a back face and a bore therethrough and having an annular flange that defines a belt-engaging surface concentric about the axis of rotation, wherein the shaft-receiving member of the hub is positioned in the bore and the hub has a smaller outer diameter compared to the inner diameter of the annular flange to define an inner cavity having a first gap between the annular outermost side of the plate and the interior surface of the annular flange of the first portion of the inertia member; characterized by a first elastomeric ring and a second elastomeric ring positioned against opposite sides of the plate; and a second portion of the inertia member fastened to the first portion of the inertia member by one or more fasteners that each pass through one of the one or more apertures in the hub with a clearance gap such that the fasteners thereby placing the first elastomeric ring and the second elastomeric ring in axial compression, wherein the first and second elastomeric rings (110, 112) do not extend into the first gap; wherein the hub is operatively coupled to the inertia member for rotation therewith only through the compression of the first and second elastomeric rings (110, 112). a hub having a shaft-receiving member defining an axis of rotation and a plate extending radially outward about the shaft-receiving member, wherein the plate has a one or more apertures therethrough and terminates with an annular outermost side; a first portion of an inertia member defining a back face and a bore therethrough and having an annular flange that defines a belt-engaging surface concentric about the axis of rotation, wherein the shaft-receiving member of the hub is positioned in the bore and the hub has a smaller outer diameter compared to the inner diameter of the annular flange to define an inner cavity having a first gap between the annular outermost side of the plate and the interior surface of the annular flange of the first portion of the inertia member; characterized by a first elastomeric ring and a second elastomeric ring positioned against opposite sides of the plate; and a second portion of the inertia member fastened to the first portion of the inertia member by one or more fasteners that each pass through one of the one or more apertures in the hub with a clearance gap such that the fasteners thereby placing the first elastomeric ring and the second elastomeric ring in axial compression, wherein the first and second elastomeric rings (110, 112) do not extend into the first gap; wherein the hub is operatively coupled to the inertia member for rotation therewith only through the compression of the first and second elastomeric rings (110, 112).
A method for monitoring engine friction, comprising: determining a commanded torque (CT RT) and a measured torque (MT RT) of an engine; determining a torque error in response to a differential between the commanded torque (CT RT) and the measured torque (MT RT), and determining a slope error in response to a differential between a rate of change of the commanded torque (CT RT) and a rate of change of the measured torque (MT RT); defining a baseline error space based on a learned torque error and a learned slope error and establishing a baseline threshold boundary within the baseline error space based on a monitoring confidence level, the baseline threshold boundary dividing the baseline error space into a first torque area below the baseline threshold boundary and a second torque area above the baseline threshold boundary; and classifying torque data from the engine in the first torque area and the second torque area based on the torque error and the slope error, wherein the torque data classified in the second torque area is indicative of an engine friction condition. determining a commanded torque (CT RT) and a measured torque (MT RT) of an engine; determining a torque error in response to a differential between the commanded torque (CT RT) and the measured torque (MT RT), and determining a slope error in response to a differential between a rate of change of the commanded torque (CT RT) and a rate of change of the measured torque (MT RT); defining a baseline error space based on a learned torque error and a learned slope error and establishing a baseline threshold boundary within the baseline error space based on a monitoring confidence level, the baseline threshold boundary dividing the baseline error space into a first torque area below the baseline threshold boundary and a second torque area above the baseline threshold boundary; and classifying torque data from the engine in the first torque area and the second torque area based on the torque error and the slope error, wherein the torque data classified in the second torque area is indicative of an engine friction condition.
Non-linear superconducting quantum circuit comprising at least one resonant portion (30,32; 60,62) and an asymmetrical threaded superconducting quantum interference device connected galvanically, said non-linear superconducting quantum circuit having a first mode (a) with a first resonant frequency and a second mode (b) with a second resonant frequency, the ratio between said first resonant frequency and said second resonant frequency being different from 1⁄2, said at least one resonant portion (30,32; 60,62) having a symbolic representation comprising a linear resonant portion (32;60) comprising at least one inductance (320;600) and at least one capacitor (322;602) and a non-linear resonant portion (30;62) comprising at least one capacitor (302;622) and said asymmetrical threaded superconducting quantum interference device, said linear resonant portion and non-linear resonant portion being connected galvanically and arranged respectively such that one has its elements connected in series, and the other one has its elements connected in parallel, said at least one resonant portion (30,32) being configured with inductance and capacitance values which induce with said asymmetrical threaded superconducting quantum interference device said first mode (a) and said second mode (b) such that said non-linear superconducting quantum circuit has zero-point fluctuations of the superconducting phase across the asymmetrical threaded superconducting quantum interference device for the first mode (a) and the second mode (b) which are superior or equal to 0.05 rad.
A monoclonal antibody which specifically binds to VEGF, characterized in that the variable domain of heavy chain thereof comprises amino acid sequences of CDR 1-3 consisting respectively of SEQ ID NO. 1, SEQ ID NO. 2 and SEQ ID NO. 3, and the variable domain of light chain thereof comprises amino acid sequences of CDR 1-3 consisting respectively of SEQ ID NO. 4, SEQ ID NO. 5 and SEQ ID NO. 6.
A method for producing a protein, comprising culturing a cell having protein production ability in suspension in a medium composition comprising nanofibers under physical disruption condition and in a state of being attached to the nanofibers, wherein the nanofibers are constituted of a non-water-soluble polysaccharide selected from the group consisting of cellulose, chitin and chitosan, the cell is HEK293, CHO-K1, BHK-21, MDCK, Vero, HepG2 or MCF-7, and the nanofibers in the medium composition are present at a concentration within a range that can promote the protein production and/or proliferation by the cell to be cultured.
A plant comprising: an ammonia synthesis loop that receives an ammonia synthesis make-up gas having a molar ratio of hydrogen to nitrogen of about 3.0; a cold box system comprising a refrigeration circuit having a compressor, an expander, and a low temperature exchanger, wherein the refrigeration circuit uses a refrigerant other than air; wherein a separation unit separates a feed gas that has a molar ratio of hydrogen to nitrogen of less than 2.5 into a fuel gas and the ammonia synthesis make-up gas and wherein the refrigerant is substantially devoid of a component that forms an explosive or reactive mixture with the ammonia synthesis make-up gas and wherein at least a portion of the refrigerant is recycled within the refrigeration circuit; and wherein the refrigeration circuit is a nitrogen circuit with the compressor and the expander or a refrigeration circuit in which at least a portion of the fuel gas is passed through the low temperature exchanger and compressed in a compressor and cooled by expansion in the expander. an ammonia synthesis loop that receives an ammonia synthesis make-up gas having a molar ratio of hydrogen to nitrogen of about 3.0; a cold box system comprising a refrigeration circuit having a compressor, an expander, and a low temperature exchanger, wherein the refrigeration circuit uses a refrigerant other than air; wherein a separation unit separates a feed gas that has a molar ratio of hydrogen to nitrogen of less than 2.5 into a fuel gas and the ammonia synthesis make-up gas and wherein the refrigerant is substantially devoid of a component that forms an explosive or reactive mixture with the ammonia synthesis make-up gas and wherein at least a portion of the refrigerant is recycled within the refrigeration circuit; and wherein the refrigeration circuit is a nitrogen circuit with the compressor and the expander or a refrigeration circuit in which at least a portion of the fuel gas is passed through the low temperature exchanger and compressed in a compressor and cooled by expansion in the expander.
A memory device comprising: a memory cell array configured to store a valid data array, a base array and a target data array for a sparse matrix vector multiplication, the valid data array sequentially including valid elements among elements of a sparse matrix, the base array sequentially including position elements indicating position values corresponding to the valid elements, the target data array sequentially including target elements of a vector corresponding to the position values; an information register configured to store indirect memory access information including a start address of the target data array and a unit size of the target elements; and a prefetch circuit configured to prefetch, based on the indirect memory access information, the target elements corresponding to the position elements that are read from the memory cell array. a memory cell array configured to store a valid data array, a base array and a target data array for a sparse matrix vector multiplication, the valid data array sequentially including valid elements among elements of a sparse matrix, the base array sequentially including position elements indicating position values corresponding to the valid elements, the target data array sequentially including target elements of a vector corresponding to the position values; an information register configured to store indirect memory access information including a start address of the target data array and a unit size of the target elements; and a prefetch circuit configured to prefetch, based on the indirect memory access information, the target elements corresponding to the position elements that are read from the memory cell array.
A pump, in particular blood pump, having a proximal and a distal end and a pump housing (2; 20; 40; 80) arranged therebetween, a driveshaft (4; 21; 48; 71) arranged in an interior of the pump housing along a longitudinal direction, a conveying element (5; 22; 49; 73) arranged on the driveshaft, and a cannula (3; 30; 47), wherein the pump housing is formed in such a way that the pump housing can be transferred at least in part into the cannula under application of a force acting towards the proximal end of the pump, and in doing so is transferred at least along a radial direction extending transversely to the longitudinal direction from an expandable state into a compressed state; and wherein the pump housing also has at least one portion which in the expanded state comprises structures (27; 46, 50; 82, 87) extending along the longitudinal axis helically around the longitudinal axis and wound in a first direction when seen from the proximal to the distal end of the pump; and wherein the conveying element comprises at least one foldable segment (22, 23; 54, 55; 76, 77), characterised in that the structures extending helically are formed in such a way that when the pump housing is transferred from the expanded into the compressed state a torque (31; 51) directed against the first direction acts on the foldable segment.
Snap-together fastening device for plug-in mounting into an opening of a sandwich component with a core layer consisting of a holding element with a plurality of fixing arms which can be actuated from a mounting position into a fixing position, wherein the holding element has a central fastening element for connecting to an external fastening element, wherein the fixing arms are fastened with their one end to the central fastening element, whereas the other end is configured as a free end, and consisting of an actuating element which can be plugged into an opening of the holding element, wherein the actuating element has actuating arms, which are configured such that the fixing arms, when the actuating element is plugged into the holding element, are each guided with a control face along a fixing arm in such a way that the respective fixing arm is moved in a direction away from the actuating arm, in such a way that, in the position of the actuating element in which it is plugged into the holding element, the fixing arms are deflected from their mounting position into their fixing position, and, on their side which is directed from the centre substantially toward the outside, the fixing arms have engagement elements which are configured for mechanical penetration into preferably the core layer of the sandwich component when the fixing arms are actuated by the actuating element into their fixing position, characterized in that respectively correspondingly arranged latching elements (14, 24) are provided on the holding element and on the actuating element, said latching elements being configured to latch the actuating element to the holding element in its position in which it is plugged into said holding element, and the actuating element is configured to lock the fixing arms in its completely pushed-in position, with the result that said fixing arms are prevented from returning into their original mounting position.
A non-virion particle that does not comprise a protein capsid, for in vivo delivery of RNA to a vertebrate cell, wherein (a) the particle is a liposome and comprises a delivery material encapsulating a self-replicating RNA molecule which encodes an immunogen, wherein the immunogen is a surface polypeptide and can elicit an immune response in vivo against a bacterium, a virus, a fungus or a parasite, and (b) the RNA includes no modified nucleotides, and optionally includes a 5' cap.
A method of creating a model for a limb stump for the manufacture of a prosthesis stem, wherein in a detection step, the surface of the limb stump is detected, in a determination step, a tissue consistency of the limb stump is determined, and in a model creation step, a model of the limb stump is created based on data acquired in the detection step, in a subdivision step, a reference plane is defined in the model and the model is subdivided into several volume slices (3a-3f) running parallel to the reference plane, in a reduction step, a reduced volume value of at least one volume slice is determined based on the determined tissue consistency, characterized in that in a modification step, a volume of the at least one volume slice is reduced according to the reduced volume value while maintaining a thickness of the volume slice and a shape of a cross-sectional contour of the volume slice extending parallel to the reference plane, and the model is adapted according to the volume-reduced volume slice. in a detection step, the surface of the limb stump is detected, in a determination step, a tissue consistency of the limb stump is determined, and in a model creation step, a model of the limb stump is created based on data acquired in the detection step, in a subdivision step, a reference plane is defined in the model and the model is subdivided into several volume slices (3a-3f) running parallel to the reference plane, in a reduction step, a reduced volume value of at least one volume slice is determined based on the determined tissue consistency, characterized in that in a modification step, a volume of the at least one volume slice is reduced according to the reduced volume value while maintaining a thickness of the volume slice and a shape of a cross-sectional contour of the volume slice extending parallel to the reference plane, and the model is adapted according to the volume-reduced volume slice.
An Organic Light-Emitting Diode, OLED, panel, comprising: a substrate having a first surface and a second surface that is opposite to the first surface; wherein the first surface is an upper surface and the second surface is a lower surface; an OLED pixel array located in a plane on the first surface of the substrate, the OLED pixel array including a plurality of OLED sub-pixels; an ultrasonic transmitting unit including an ultrasonic emitting layer configured to emit ultrasonic waves; and an ultrasonic receiving unit including a receiver array, the receiver array including a plurality of receivers configured to convert received ultrasonic waves into electrical signals, wherein the ultrasonic emitting layer, the receiver array, and the OLED pixel array are located in the same area of the OLED panel; wherein the ultrasonic emitting layer is the substrate; wherein a width of each of the plurality of receivers is smaller than that of each of the plurality of OLED sub-pixels; and the OLED pixel array is on the first surface of the ultrasonic emitting layer and outside the ultrasonic emitting layer; characterized in that the plurality of receivers are located on black matrixes between the plurality of OLED sub-pixels. a substrate having a first surface and a second surface that is opposite to the first surface; wherein the first surface is an upper surface and the second surface is a lower surface; an OLED pixel array located in a plane on the first surface of the substrate, the OLED pixel array including a plurality of OLED sub-pixels; an ultrasonic transmitting unit including an ultrasonic emitting layer configured to emit ultrasonic waves; and an ultrasonic receiving unit including a receiver array, the receiver array including a plurality of receivers configured to convert received ultrasonic waves into electrical signals, wherein the ultrasonic emitting layer, the receiver array, and the OLED pixel array are located in the same area of the OLED panel; wherein the ultrasonic emitting layer is the substrate; wherein a width of each of the plurality of receivers is smaller than that of each of the plurality of OLED sub-pixels; and the OLED pixel array is on the first surface of the ultrasonic emitting layer and outside the ultrasonic emitting layer; characterized in that the plurality of receivers are located on black matrixes between the plurality of OLED sub-pixels.
A log support and clamp assembly for use in a portable sawmill, comprising: • a horizontal support beam having two ends for affixing to a sawmill, said support beam capable of being affixed to said sawmill at both ends; • a log dog, having a vertical portion generally perpendicular to said horizontal support beam and extending upwards therefrom, and a top end having a pick protruding therefrom; characterised by: • a log rest assembly having: ∘ a clamp housing affixed to said support beam and horizontally displaceable thereon; ∘ a post connected to or housed within said clamp housing, said post configured in a generally vertical direction and said clamp housing having a ratchet mechanism (34, 94) for raising the post relative to the horizontal support beam. • a horizontal support beam having two ends for affixing to a sawmill, said support beam capable of being affixed to said sawmill at both ends; • a log dog, having a vertical portion generally perpendicular to said horizontal support beam and extending upwards therefrom, and a top end having a pick protruding therefrom; characterised by: • a log rest assembly having: ∘ a clamp housing affixed to said support beam and horizontally displaceable thereon; ∘ a post connected to or housed within said clamp housing, said post configured in a generally vertical direction and said clamp housing having a ratchet mechanism (34, 94) for raising the post relative to the horizontal support beam. ∘ a clamp housing affixed to said support beam and horizontally displaceable thereon; ∘ a post connected to or housed within said clamp housing, said post configured in a generally vertical direction and said clamp housing having a ratchet mechanism (34, 94) for raising the post relative to the horizontal support beam.
A method for obtaining a high-resolution image of a volume of a sample using laser imaging, the method comprising the steps of: (a) probing the volume of the sample with a first excitation beam having an intensity profile of maximum intensity at a centre thereof, thereby obtaining a positive image of said volume; (b) probing the volume of the sample with a second excitation beam having an intensity profile of minimum intensity at a centre thereof and defining a peripheral region of maximum intensity around said centre, thereby obtaining a negative image of said volume; and (c) subtracting the negative image from the positive image, thereby obtaining said high-resolution image of said volume of the sample. (a) probing the volume of the sample with a first excitation beam having an intensity profile of maximum intensity at a centre thereof, thereby obtaining a positive image of said volume; (b) probing the volume of the sample with a second excitation beam having an intensity profile of minimum intensity at a centre thereof and defining a peripheral region of maximum intensity around said centre, thereby obtaining a negative image of said volume; and (c) subtracting the negative image from the positive image, thereby obtaining said high-resolution image of said volume of the sample.
A method for publication delegation, comprising: Receiving a request from a publisher entity to publish presence information of a presentity on behalf of the presentity or another presentity; determining whether conditions exist that require application of a publication authorization rule; if the conditions exist, determining whether to allow or block the request to publish based on the application of the publication authorization rule; and upon a determination to allow the request to publish, transforming the presence information in accordance with publication content rules; and upon determining that the presence information does not match the content rules, rejecting the publication and providing to the publisher entity the content rules associated with an identity of the presentity on whose behalf a presence source is publishing the presence information of the presentity. Receiving a request from a publisher entity to publish presence information of a presentity on behalf of the presentity or another presentity; determining whether conditions exist that require application of a publication authorization rule; if the conditions exist, determining whether to allow or block the request to publish based on the application of the publication authorization rule; and upon a determination to allow the request to publish, transforming the presence information in accordance with publication content rules; and upon determining that the presence information does not match the content rules, rejecting the publication and providing to the publisher entity the content rules associated with an identity of the presentity on whose behalf a presence source is publishing the presence information of the presentity.