mhurhangee/patent-ind-claim-en huggingface dataset:
A customizable shoe last comprising: a solid portion and an adjustable portion , the adjustable portion to comprise a moldable material that is selectively solidifiable for footwear manufacture; an interchangeable mold cover to enclose the adjustable portion; characterised in that a backpressure cavity arranged with respect to the adjustable portion to put pressure on moldable material of the adjustable portion. a solid portion and an adjustable portion , the adjustable portion to comprise a moldable material that is selectively solidifiable for footwear manufacture; an interchangeable mold cover to enclose the adjustable portion; characterised in that a backpressure cavity arranged with respect to the adjustable portion to put pressure on moldable material of the adjustable portion.
Kit for the execution of post-extraction dental implant surgery, characterized by the fact that it comprises: - a plurality of groups of dental implants , each group comprising at least one threaded pin having a characteristic diameter (D1, D2, D3), the characteristic diameter (D1, D2, D3) of each of said groups of dental implants being different from the characteristic diameter (D1, D2, D3) of the other groups of dental implants ; and - a plurality of dental drills , each of which is provided with: - at least one proximal portion , connectable to a tool for the setting in rotation; - at least one working median portion , having a reference diameter (d1, d2, d3) and adapted to remove at least a part of the alveolar bone ; - at least one non-working distal portion , adapted to be inserted, in use, inside a corresponding apical portion of an alveolar cavity without removal of the alveolar bone ; wherein each of said dental drills corresponds to one of said groups of dental implants and has said reference diameter (d1, d2, d3) which is substantially matching the characteristic diameter (D1, D2, D3) of the corresponding group of dental implants . - a plurality of groups of dental implants , each group comprising at least one threaded pin having a characteristic diameter (D1, D2, D3), the characteristic diameter (D1, D2, D3) of each of said groups of dental implants being different from the characteristic diameter (D1, D2, D3) of the other groups of dental implants ; and - a plurality of dental drills , each of which is provided with: - at least one proximal portion , connectable to a tool for the setting in rotation; - at least one working median portion , having a reference diameter (d1, d2, d3) and adapted to remove at least a part of the alveolar bone ; - at least one non-working distal portion , adapted to be inserted, in use, inside a corresponding apical portion of an alveolar cavity without removal of the alveolar bone ; - at least one proximal portion , connectable to a tool for the setting in rotation; - at least one working median portion , having a reference diameter (d1, d2, d3) and adapted to remove at least a part of the alveolar bone ; - at least one non-working distal portion , adapted to be inserted, in use, inside a corresponding apical portion of an alveolar cavity without removal of the alveolar bone ;
A composition comprising recombinant follicle stimulating hormone (FSH) for use in the treatment of infertility in a patient of age ≥ 35 years, wherein the composition is administered at a (e.g. starting) dose of, or a (e.g. starting) dose equivalent to, 15 μg recombinant FSH per day and wherein the recombinant FSH has 5 % to 20% of the total sialylation which is α2, 6-sialyation, and 80% to 95% of the total sialylation which is α 2,3-sialyation.
An arc welding display method for displaying a state of arc welding in a welding apparatus having a weaving function of swinging a torch with respect to a welding direction, the method comprising displaying at least one of a welding current and a welding voltage during the arc welding with a range sectioned by each fixed period including at least one weaving period, wherein an average welding current in each fixed period including at least one weaving period is subtracted from the welding current during the arc welding or an average welding voltage in each fixed period including at least one weaving period is subtracted from the welding voltage during the arc welding, and a value acquired by the subtraction is displayed, and wherein as for the welding current or the welding voltage during the arc welding, waveforms in several periods which are superimposed on one another, each of which is a waveform sectioned by each fixed period including at least one weaving period, are displayed. wherein an average welding current in each fixed period including at least one weaving period is subtracted from the welding current during the arc welding or an average welding voltage in each fixed period including at least one weaving period is subtracted from the welding voltage during the arc welding, and a value acquired by the subtraction is displayed, and wherein as for the welding current or the welding voltage during the arc welding, waveforms in several periods which are superimposed on one another, each of which is a waveform sectioned by each fixed period including at least one weaving period, are displayed.
Method for analyzing potential ablation therapies , in particular for patients (P) with atrial fibrillation, via a control system , wherein the method comprises an analysis step in which the control system applies a trained machine learning model to input data thereby generating output data , wherein the input data comprise electrical biomarkers derived from ECG data from a patient (P) of at least one potential ablation therapy , the potential ablation therapy including at least one potential ablation event with a potential ablation location , wherein the output data comprise a predicted change of the electrical biomarkers after applying the potential ablation therapy to the patient (P), wherein the predicted change is derived from the input data via the trained machine learning model . wherein the method comprises an analysis step in which the control system applies a trained machine learning model to input data thereby generating output data , wherein the input data comprise electrical biomarkers derived from ECG data from a patient (P) of at least one potential ablation therapy , the potential ablation therapy including at least one potential ablation event with a potential ablation location , wherein the output data comprise a predicted change of the electrical biomarkers after applying the potential ablation therapy to the patient (P), wherein the predicted change is derived from the input data via the trained machine learning model .
Stackable packaging modules for packaging oblong objects , having a U-shaped profile , formed by a horizontal bottom profile and two upright legs , whereby the horizontal bottom profile always has a same standard length and the two upright legs can have several heights, both however always being equally high, characterised in that the horizontal bottom profile along both upright long sides is provided with at least two protrusions and at least two hollow recesses in which the at least two protrusions and at least two recesses of a horizontal bottom profile of an adjoining module fit, and that the U-shaped profile is made from a reusable and recyclable material or a synthetic material, and that the horizontal bottom profile on the underside is provided over the whole length with a slit-shaped recess in which a fork of a forklift truck, reach truck or side loader fits and in that the upright legs are provided with convex studs on their upperside which fit in concave cavities provided to this end on the underside of the horizontal bottom profile of an overlying module stacked on the bottom one.
Operator control apparatus, in particular for an electronic domestic appliance, having: a covering plate with a user side which faces a user and a rear side which faces away from the user, wherein the covering plate defines an operator control panel and can be at least partially elastically deformed and/or moved in this operator control panel by an action of force (F1, F2) from the user side; an optical sensor with a transmitter for emitting electromagnetic radiation (E) and a receiver for detecting reflected electromagnetic radiation (R0, R1, R2) in a spatially resolved manner; and a control electronics system for evaluating measurement signals which are generated by the receiver , wherein the operator control panel can be deformed and/or moved to different extents by actions of force (F1, F2) of different intensity; characterized in that the control electronics system is designed in such a way that it differentiates between non-operation of the operator control panel , operation of the operator control panel with a first action of force (F1) and operation of the operator control panel with a second action of force (F2), which is different from the first action of force, depending on a detection location (x0, x1, x2) of the reflected electromagnetic radiation (R0, R1, R2), and assigns a first operator control functionality to operation of the operator control panel with the first action of force (F1) and assigns a second operator control functionality, which is different from the first operator control functionality, to operation of the operator control panel with the second action of force (F2). a covering plate with a user side which faces a user and a rear side which faces away from the user, wherein the covering plate defines an operator control panel and can be at least partially elastically deformed and/or moved in this operator control panel by an action of force (F1, F2) from the user side; an optical sensor with a transmitter for emitting electromagnetic radiation (E) and a receiver for detecting reflected electromagnetic radiation (R0, R1, R2) in a spatially resolved manner; and a control electronics system for evaluating measurement signals which are generated by the receiver , wherein the operator control panel can be deformed and/or moved to different extents by actions of force (F1, F2) of different intensity; characterized in that the control electronics system is designed in such a way that it differentiates between non-operation of the operator control panel , operation of the operator control panel with a first action of force (F1) and operation of the operator control panel with a second action of force (F2), which is different from the first action of force, depending on a detection location (x0, x1, x2) of the reflected electromagnetic radiation (R0, R1, R2), and assigns a first operator control functionality to operation of the operator control panel with the first action of force (F1) and assigns a second operator control functionality, which is different from the first operator control functionality, to operation of the operator control panel with the second action of force (F2).
A process for producing olefins comprising: cracking a hydrocarbon feed over an FCC catalyst in an FCC zone to produce spent FCC catalyst and a cracked product stream; obtaining an oligomerization feed stream comprising C 4 and C 5 hydrocarbons from said cracked product stream; passing said oligomerization feed stream to an oligomerization zone to oligomerize olefins in said oligomerization feed stream in liquid phase to produce an oligomerate stream; fractionating the oligomerate stream in a debutanizer column to provide a first vaporous oligomerate overhead light stream comprising C 4 hydrocarbons and a first liquid oligomerate bottom stream comprising C 5+ hydrocarbons, the overhead pressure in the debutanizer column being between 300 and 350 kPa (gauge) and the bottom temperature being between 250°C and 300°C; fractionating the first liquid oligomerate bottom stream comprising C 5+ hydrocarbons in a depentanizer column to provide an intermediate stream comprising C 5 hydrocarbons and a liquid oligomerate bottom product stream comprising C 6+ hydrocarbons, the overhead pressure in the depentanizer column being between about 10 and about 60 kPa (gauge) and the bottom temperature being between 225°C and 275°C; and recycling an intermediate recycle stream comprising C 5 hydrocarbons to said oligomerization zone to maintain the liquid phase. cracking a hydrocarbon feed over an FCC catalyst in an FCC zone to produce spent FCC catalyst and a cracked product stream; obtaining an oligomerization feed stream comprising C 4 and C 5 hydrocarbons from said cracked product stream; passing said oligomerization feed stream to an oligomerization zone to oligomerize olefins in said oligomerization feed stream in liquid phase to produce an oligomerate stream; fractionating the oligomerate stream in a debutanizer column to provide a first vaporous oligomerate overhead light stream comprising C 4 hydrocarbons and a first liquid oligomerate bottom stream comprising C 5+ hydrocarbons, the overhead pressure in the debutanizer column being between 300 and 350 kPa (gauge) and the bottom temperature being between 250°C and 300°C; fractionating the first liquid oligomerate bottom stream comprising C 5+ hydrocarbons in a depentanizer column to provide an intermediate stream comprising C 5 hydrocarbons and a liquid oligomerate bottom product stream comprising C 6+ hydrocarbons, the overhead pressure in the depentanizer column being between about 10 and about 60 kPa (gauge) and the bottom temperature being between 225°C and 275°C; and recycling an intermediate recycle stream comprising C 5 hydrocarbons to said oligomerization zone to maintain the liquid phase.
A rock drilling unit of a rock drilling rig , comprising: a feed beam and a rock drilling machine supported movably on the feed beam for drilling holes; wherein the rock drilling unit further comprises an initiator feed system for feeding initiators inside the drilled holes in order to activate rock breaking material also fed inside the drilled holes; wherein the initiator feed system of the drilling unit is provided with at least one communicating device for providing wireless communication with the initiators; the communication device (Cd) is in data connection with at least one control unit mounted onboard the rock drilling rig and adapted for controlling operation of the rock drilling machine and the initiator feed system ; and the communication device (Cd) is configured to determine identification of the initiator and provides identification data to link the initiator to at least one dedicated data element. a feed beam and a rock drilling machine supported movably on the feed beam for drilling holes; wherein the rock drilling unit further comprises an initiator feed system for feeding initiators inside the drilled holes in order to activate rock breaking material also fed inside the drilled holes; wherein the initiator feed system of the drilling unit is provided with at least one communicating device for providing wireless communication with the initiators; the communication device (Cd) is in data connection with at least one control unit mounted onboard the rock drilling rig and adapted for controlling operation of the rock drilling machine and the initiator feed system ; and the communication device (Cd) is configured to determine identification of the initiator and provides identification data to link the initiator to at least one dedicated data element.
Connecting element for connecting a metal material to a non-metal fiber-reinforced material comprising at least one metal fiber , wherein - the connecting element additionally having at least one non-metal fiber , - characterized in that the at least one metal fiber and the at least one non-metal fiber are connected to one another and form a hybrid textile structure , - the hybrid textile structure has a longitudinal extent (x-direction) with two end faces , and - a gradient with respect to the material composition extends along the longitudinal extension (x-direction) of the hybrid textile structure and the hybrid textile structure is formed of more than 50% metal fiber at one end face and more than 50% non-metal fiber at a second end face and - the hybrid textile structure is a knitted fabric, a knit, a woven fabric or a braided fabric. - the connecting element additionally having at least one non-metal fiber , - characterized in that the at least one metal fiber and the at least one non-metal fiber are connected to one another and form a hybrid textile structure , - the hybrid textile structure has a longitudinal extent (x-direction) with two end faces , and - a gradient with respect to the material composition extends along the longitudinal extension (x-direction) of the hybrid textile structure and the hybrid textile structure is formed of more than 50% metal fiber at one end face and more than 50% non-metal fiber at a second end face and - the hybrid textile structure is a knitted fabric, a knit, a woven fabric or a braided fabric.
A handling and installation assembly for a roof window comprising a frame , a sash and a hinge with a sash hinge part comprising a base plate , a slide rail , and a pivot pin , in which the pivot pin extends perpendicularly from the base plate , and the slide rail is connected to the pivot pin and configured to pivot about the pivot pin , wherein the assembly is releasably connectable to the hinge, and wherein the assembly comprises a first element connectable to the pivot pin and the slide rail and configured to rotate with the slide rail , characterized in that the assembly comprises a second element connectable to the first element and the base plate , that the first element and the second element are engageable with each other in a first orientation to temporarily lock the slide rail in the first orientation, and that the first element and the second element are engageable with each other in at least one other orientation including a second orientation to temporarily lock the slide rail in the second orientation.
A system having a controller and a memory controlled by the controller, comprising: a first storage area (11-2) being used to store a first key (NKey i ) and first secret identification information (ChipID), the first storage area being restricted from being read and written from outside; a second storage area (11-3) being used to store index information (ID-index) for specifying the first secret identification information (ChipID), the second storage area being read-only; and a third storage area (11-1) used to store encrypted secret identification information (SECID) generated by encrypting the first secret identification information (ChipID), the third storage area being readable from a host device ; wherein the system is configured to: generate a second key (HKey i,j ) by converting information (HC j ), which has been received from the host device , using the first key (NKey i ); generate a session key (SKey i,j ) by converting, using the second key (HKey i,j ), a random number (RN h ) which has been received from the host device ; generate first authentication information (Oneway(SKey i,j , ChipID)) by processing the first secret identification information (ChipID) with the session key in one-way function operation. a first storage area (11-2) being used to store a first key (NKey i ) and first secret identification information (ChipID), the first storage area being restricted from being read and written from outside; a second storage area (11-3) being used to store index information (ID-index) for specifying the first secret identification information (ChipID), the second storage area being read-only; and a third storage area (11-1) used to store encrypted secret identification information (SECID) generated by encrypting the first secret identification information (ChipID), the third storage area being readable from a host device ; wherein the system is configured to: generate a second key (HKey i,j ) by converting information (HC j ), which has been received from the host device , using the first key (NKey i ); generate a session key (SKey i,j ) by converting, using the second key (HKey i,j ), a random number (RN h ) which has been received from the host device ; generate first authentication information (Oneway(SKey i,j , ChipID)) by processing the first secret identification information (ChipID) with the session key in one-way function operation. generate a second key (HKey i,j ) by converting information (HC j ), which has been received from the host device , using the first key (NKey i ); generate a session key (SKey i,j ) by converting, using the second key (HKey i,j ), a random number (RN h ) which has been received from the host device ; generate first authentication information (Oneway(SKey i,j , ChipID)) by processing the first secret identification information (ChipID) with the session key in one-way function operation.
A data encoder configured for: - receiving image data with luminance values representing absolute luminance values L to be encoded; - encoding the received image data into reference encoded image data; and - outputting the reference encoded image data, wherein said encoding comprises mapping absolute luminance values into digital code values, the luminance values of the received image data being represented by the digital code values in the reference encoded image data; wherein said mapping is based at least in part on an inverse of a functional model of Y = max V 1 m − c 1 0 c 2 − c 3 V 1 m 1 n , wherein: Y is a normalized value of a corresponding one of the absolute luminance values L , wherein 0 ≤ Y ≤ 1, and Y = L 10,000 , with 0 ≤ L ≤ 10,000 cd/m 2 , V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1 , c 2 , and c 3 are predetermined values, with: n = 2610 4096 × 1 4 ≃ 0.1593017578125 ; m = 2523 4096 × 128 ≃ 78.84375 ; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375 ; c 2 = 2413 4096 × 32 ≃ 18.8515625 ; and c 3 = 2392 4096 × 32 ≃ 18.6875 . - receiving image data with luminance values representing absolute luminance values L to be encoded; - encoding the received image data into reference encoded image data; and - outputting the reference encoded image data, wherein said encoding comprises mapping absolute luminance values into digital code values, the luminance values of the received image data being represented by the digital code values in the reference encoded image data; wherein said mapping is based at least in part on an inverse of a functional model of Y = max V 1 m − c 1 0 c 2 − c 3 V 1 m 1 n , wherein: Y is a normalized value of a corresponding one of the absolute luminance values L , wherein 0 ≤ Y ≤ 1, and Y = L 10,000 , with 0 ≤ L ≤ 10,000 cd/m 2 , V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1 , c 2 , and c 3 are predetermined values, with: n = 2610 4096 × 1 4 ≃ 0.1593017578125 ; m = 2523 4096 × 128 ≃ 78.84375 ; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375 ; c 2 = 2413 4096 × 32 ≃ 18.8515625 ; and c 3 = 2392 4096 × 32 ≃ 18.6875 . Y is a normalized value of a corresponding one of the absolute luminance values L , wherein 0 ≤ Y ≤ 1, and Y = L 10,000 , with 0 ≤ L ≤ 10,000 cd/m 2 , V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1 , c 2 , and c 3 are predetermined values, with: n = 2610 4096 × 1 4 ≃ 0.1593017578125 ; m = 2523 4096 × 128 ≃ 78.84375 ; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375 ; c 2 = 2413 4096 × 32 ≃ 18.8515625 ; and c 3 = 2392 4096 × 32 ≃ 18.6875 .