mhurhangee/ep-ind-claims huggingface dataset:
A set comprising a ceiling of a room to be ventilated and at least one air outlet in the form of a ceiling outlet, the air outlet being suitable for ventilating a laboratory in particular, the air outlet comprising a housing, which is formed from at least one base part, at least one ceiling part and at least one side part (4, 4'), which together spatially delimit an interior of the housing, the housing comprising at least one air inlet opening and at least one air outlet opening, it being possible to conduct supply air into the air outlet by means of the air inlet opening and to conduct air out of the air outlet by means of the air outlet opening, the interior of the housing being divided into at least one air inlet space and at least one air outlet space by means of at least one separating wall, and the air inlet opening being assigned to the air inlet space and the air outlet opening being assigned to the air outlet space, and the separating wall having at least one opening, by means of which an aerodynamic connection between the air inlet space and the air outlet space is created, the air outlet having at least one second air outlet opening (8, 37), which is arranged in the air inlet space and creates a direct aerodynamic connection between the air inlet space and the room to be ventilated, - the second air outlet opening being arranged in at least one side part (4, 4') of the housing, so that the supply air located in the air inlet space - as observed in a vertical cross section of the air outlet (1, 1') - can be conducted out of the air outlet to the side and preferably approximately horizontally, and/or - the second air outlet opening being arranged in the base part of the air outlet (1"), so that the supply air located in the air inlet space - as observed in the vertical cross section of the air outlet - can be conducted out of the air outlet at an underside of the air outlet, preferably downwards in the vertical direction, characterized in that the air outlet, in the installation state thereof in which the same is installed fixedly below the ceiling of the room to be ventilated, has at least one unpopulated mounting, which is suitable for accommodating at least one heat exchanger module. - the second air outlet opening being arranged in at least one side part (4, 4') of the housing, so that the supply air located in the air inlet space - as observed in a vertical cross section of the air outlet (1, 1') - can be conducted out of the air outlet to the side and preferably approximately horizontally, and/or - the second air outlet opening being arranged in the base part of the air outlet (1"), so that the supply air located in the air inlet space - as observed in the vertical cross section of the air outlet - can be conducted out of the air outlet at an underside of the air outlet, preferably downwards in the vertical direction,
A coextruded biaxially oriented food packaging film comprising the following layer structure positioned in order from the outside to the inside: an outside surface layer comprising polyester, polyamide, polystyrene, polycarbonate, poly(methyl methacrylate), cyclic olefin copolymer, polypropylene, high density polyethylene, or combinations thereof; a polyamide layer in direct contact with the delamination layer; a delamination layer in direct contact with the polyamide layer comprising an anhydride-modified polymer comprising a base polymer comprising a polyethylene homopolymer or copolymer, polypropylene homopolymer or copolymer, or an ethylene copolymer comprising copolymerized units derived from ethylene and at least one additional polar comonomer, wherein the base polymer is grafted with up to 1 weight % of an unsaturated dicarboxylic acid anhydride, preferably maleic anhydride; or an acid copolymer or ionomer thereof; wherein the adhesion between the polyamide layer and the delamination layer is from 0.1 to 10 N/15mm, preferably from 2 to 8 N/15mm; and an inside surface sealant layer comprising a polyolefin polymer comprising a polyethylene homopolymer or copolymer, ethylene alkyl (meth)acrylate copolymer, or an ethylene alkyl (meth)acrylic acid copolymer or ionomer thereof, or mixtures thereof. an outside surface layer comprising polyester, polyamide, polystyrene, polycarbonate, poly(methyl methacrylate), cyclic olefin copolymer, polypropylene, high density polyethylene, or combinations thereof; a polyamide layer in direct contact with the delamination layer; a delamination layer in direct contact with the polyamide layer comprising an anhydride-modified polymer comprising a base polymer comprising a polyethylene homopolymer or copolymer, polypropylene homopolymer or copolymer, or an ethylene copolymer comprising copolymerized units derived from ethylene and at least one additional polar comonomer, wherein the base polymer is grafted with up to 1 weight % of an unsaturated dicarboxylic acid anhydride, preferably maleic anhydride; or an acid copolymer or ionomer thereof; wherein the adhesion between the polyamide layer and the delamination layer is from 0.1 to 10 N/15mm, preferably from 2 to 8 N/15mm; and an inside surface sealant layer comprising a polyolefin polymer comprising a polyethylene homopolymer or copolymer, ethylene alkyl (meth)acrylate copolymer, or an ethylene alkyl (meth)acrylic acid copolymer or ionomer thereof, or mixtures thereof.
A method of manufacturing a tubular member having a tube expansion portion by working a sheet-like subject matter, characterized by comprising: a press-cutting step of forming slots or slits at an expandable tube portion of a sheet-like subject matter; a sheet rolling step of rolling the sheet-like subject matter press-cut by the press-cutting step into a tubular subject matter tightly connected at a butt connection portion thereof; and a tube expanding step of expanding the expandable tube portion of the tubular subject matter formed by the sheet rolling step. a press-cutting step of forming slots or slits at an expandable tube portion of a sheet-like subject matter; a sheet rolling step of rolling the sheet-like subject matter press-cut by the press-cutting step into a tubular subject matter tightly connected at a butt connection portion thereof; and a tube expanding step of expanding the expandable tube portion of the tubular subject matter formed by the sheet rolling step.
A computer-implemented method of generating a virtual depiction of an orthodontic treatment of a patient, the computer-implemented method comprising: receiving, from a digital imaging device, one or more 2D images of a patient's face comprising a mouth region, wherein the one or more 2D images comprise a depiction of the patient's teeth in an initial arrangement; processing the one or more received 2D images, wherein the processing comprises extracting teeth contours of the patient's teeth from within the mouth region of the one or more received 2D images of the patient's face; generating, using a neural network, a 2D rendering depicting a post-treatment arrangement of the patient's teeth based on the one or more received 2D images; and forming a realistic composite 2D image (120, 600, 1000, 1200, 3110, 3200, 3410, 3420, 3430, 3610, 3620, 3630) depicting the patient's face with the 2D rendering depicting the post-treatment arrangement of the patient's teeth, based on a comparison between the extracted teeth contours and teeth contours of the 2D rendering. receiving, from a digital imaging device, one or more 2D images of a patient's face comprising a mouth region, wherein the one or more 2D images comprise a depiction of the patient's teeth in an initial arrangement; processing the one or more received 2D images, wherein the processing comprises extracting teeth contours of the patient's teeth from within the mouth region of the one or more received 2D images of the patient's face; generating, using a neural network, a 2D rendering depicting a post-treatment arrangement of the patient's teeth based on the one or more received 2D images; and forming a realistic composite 2D image (120, 600, 1000, 1200, 3110, 3200, 3410, 3420, 3430, 3610, 3620, 3630) depicting the patient's face with the 2D rendering depicting the post-treatment arrangement of the patient's teeth, based on a comparison between the extracted teeth contours and teeth contours of the 2D rendering.
A method of low-bitrate coding of audio data and generating enhancement metadata for controlling audio enhancement of the low-bitrate coded audio data in a decoder at a decoder side, including the steps of: (a) core encoding original audio data at a low bitrate to obtain encoded audio data; (b) generating, in an encoder, enhancement metadata to be transmitted to the decoder for controlling a type and/or amount of audio enhancement in the decoder after core decoding the encoded audio data; and (c) outputting the encoded audio data and the enhancement metadata to the decoder, wherein generating enhancement metadata in step (b) includes: (i) core decoding the encoded audio data to obtain core decoded raw audio data; (ii) inputting the core decoded raw audio data into an audio enhancer for processing the core decoded raw audio data based on candidate enhancement metadata for controlling the type and/or amount of audio enhancement of audio data that is input to the audio enhancer; (iii) obtaining, as an output from the audio enhancer, enhanced audio data; (iv) determining a suitability of the candidate enhancement metadata based on listening, by a user, the enhanced audio data; and (v) generating enhancement metadata based on a result of the determination. (a) core encoding original audio data at a low bitrate to obtain encoded audio data; (b) generating, in an encoder, enhancement metadata to be transmitted to the decoder for controlling a type and/or amount of audio enhancement in the decoder after core decoding the encoded audio data; and (c) outputting the encoded audio data and the enhancement metadata to the decoder, wherein generating enhancement metadata in step (b) includes: (i) core decoding the encoded audio data to obtain core decoded raw audio data; (ii) inputting the core decoded raw audio data into an audio enhancer for processing the core decoded raw audio data based on candidate enhancement metadata for controlling the type and/or amount of audio enhancement of audio data that is input to the audio enhancer; (iii) obtaining, as an output from the audio enhancer, enhanced audio data; (iv) determining a suitability of the candidate enhancement metadata based on listening, by a user, the enhanced audio data; and (v) generating enhancement metadata based on a result of the determination. (i) core decoding the encoded audio data to obtain core decoded raw audio data; (ii) inputting the core decoded raw audio data into an audio enhancer for processing the core decoded raw audio data based on candidate enhancement metadata for controlling the type and/or amount of audio enhancement of audio data that is input to the audio enhancer; (iii) obtaining, as an output from the audio enhancer, enhanced audio data; (iv) determining a suitability of the candidate enhancement metadata based on listening, by a user, the enhanced audio data; and (v) generating enhancement metadata based on a result of the determination.
An information transmission method, wherein the method comprises the following steps: determining, when a user equipment, UE, is in a connected state, by a mobility management entity, whether a single radio voice call continuity, SRVCC, capability of the UE is changed from a first capability to a second capability that is different from the first capability, the determining whether the SRVCC capability of the UE is changed from the first capability to the second capability comprises at least one of determining whether the UE supports SRVCC, determining whether SRVCC subscription data of the UE is changed in an server, or determining whether the mobility management entity supports SRVCC; sending, by the mobility management entity, first information to a base station to which the UE belongs for determination of whether to initiate an SRVCC process according to that the SRVCC capability of the UE is the second capability when the SRVCC capability is changed from the first capability to the second capability, wherein the first information carries first state information, and the first state information is used to represent that the SRVCC capability of the UE is the second capability. determining, when a user equipment, UE, is in a connected state, by a mobility management entity, whether a single radio voice call continuity, SRVCC, capability of the UE is changed from a first capability to a second capability that is different from the first capability, the determining whether the SRVCC capability of the UE is changed from the first capability to the second capability comprises at least one of determining whether the UE supports SRVCC, determining whether SRVCC subscription data of the UE is changed in an server, or determining whether the mobility management entity supports SRVCC; sending, by the mobility management entity, first information to a base station to which the UE belongs for determination of whether to initiate an SRVCC process according to that the SRVCC capability of the UE is the second capability when the SRVCC capability is changed from the first capability to the second capability, wherein the first information carries first state information, and the first state information is used to represent that the SRVCC capability of the UE is the second capability.
A method of automatic calibration, comprising: performing an initial calibration of a catheter for a calibration position, wherein the initial calibration comprises: taking an Optical Coherence Tomography image from a catheter; operably accessing a template of the respective catheter; matching the template with the OCT image to identify a position of internal catheter reflection lines comprised in the OCT image; shifting the catheter reflection lines by adjusting the Z-offset if a template match is identified; monitoring at least one parameter indicative of the calibration position; determining if the calibration position needs updating on an image frame; and updating the calibration position on a frame-by-frame basis. performing an initial calibration of a catheter for a calibration position, wherein the initial calibration comprises: taking an Optical Coherence Tomography image from a catheter; operably accessing a template of the respective catheter; matching the template with the OCT image to identify a position of internal catheter reflection lines comprised in the OCT image; shifting the catheter reflection lines by adjusting the Z-offset if a template match is identified; taking an Optical Coherence Tomography image from a catheter; operably accessing a template of the respective catheter; matching the template with the OCT image to identify a position of internal catheter reflection lines comprised in the OCT image; shifting the catheter reflection lines by adjusting the Z-offset if a template match is identified; monitoring at least one parameter indicative of the calibration position; determining if the calibration position needs updating on an image frame; and updating the calibration position on a frame-by-frame basis.
An iron-type golf club head comprising: a body having a wall extending about an opening, the wall having an outer peripheral surface, a first hardness, a sole, a toe and a topline; a faceplate coupled to the body across the opening, the wall and the faceplate defining a rearward-facing cavity; a plurality of apertures extending through the wall from the peripheral outer surface to the cavity, the plurality of apertures including at least first, second and third apertures formed in the sole of the wall, and at least a fourth aperture formed in the topline; and a plurality of plugs positioned within the at least first, second, third and fourth apertures, respectively, and the plurality of plugs having hardnesses, each of the plug hardnesses being less than the first hardness. a body having a wall extending about an opening, the wall having an outer peripheral surface, a first hardness, a sole, a toe and a topline; a faceplate coupled to the body across the opening, the wall and the faceplate defining a rearward-facing cavity; a plurality of apertures extending through the wall from the peripheral outer surface to the cavity, the plurality of apertures including at least first, second and third apertures formed in the sole of the wall, and at least a fourth aperture formed in the topline; and a plurality of plugs positioned within the at least first, second, third and fourth apertures, respectively, and the plurality of plugs having hardnesses, each of the plug hardnesses being less than the first hardness.
A method for electromagnetic interference filtering, the method comprising: installing an EMI filter network (120; 300) comprising a plurality of passive circuit elements (L, C) in an airplane between a power source and a dynamic load defined by a plurality of loads coupled to the EMI filter network (120; 300), wherein the loads are motors or actuators; configuring the EMI filter network (120; 300) to provide a first filter value to the dynamic load, wherein the EMI filter network (120; 300) comprises a plurality of switches (Sw) configured to determine how the passive circuit elements of the plurality of passive circuit elements (L, C) are electrically interconnected, and wherein configuring the EMI filter network (120; 300) comprises selecting respective settings of the plurality of switches (Sw); and upon identifying a change in an operational state of the dynamic load, when different motors or combinations of motors become operational, reconfiguring the EMI filter network (120; 300) to provide a second filter value to the dynamic load by changing the settings of at least one of the plurality of switches (Sw), wherein the plurality of passive circuit elements (L, C) comprises at least one inductor and at least one capacitor, wherein at least one of the plurality of switches (Sw) is disposed between the inductor and capacitor to electrically connect and disconnect the capacitor from the inductor. installing an EMI filter network (120; 300) comprising a plurality of passive circuit elements (L, C) in an airplane between a power source and a dynamic load defined by a plurality of loads coupled to the EMI filter network (120; 300), wherein the loads are motors or actuators; configuring the EMI filter network (120; 300) to provide a first filter value to the dynamic load, wherein the EMI filter network (120; 300) comprises a plurality of switches (Sw) configured to determine how the passive circuit elements of the plurality of passive circuit elements (L, C) are electrically interconnected, and wherein configuring the EMI filter network (120; 300) comprises selecting respective settings of the plurality of switches (Sw); and upon identifying a change in an operational state of the dynamic load, when different motors or combinations of motors become operational, reconfiguring the EMI filter network (120; 300) to provide a second filter value to the dynamic load by changing the settings of at least one of the plurality of switches (Sw), wherein the plurality of passive circuit elements (L, C) comprises at least one inductor and at least one capacitor, wherein at least one of the plurality of switches (Sw) is disposed between the inductor and capacitor to electrically connect and disconnect the capacitor from the inductor.
Degasifying apparatus for removing gases, such as ambient air, from fluids, such as oil, consisting of at least one permeable membrane, which allows the gas to be removed from the fluid to pass through and retains the liquid portion of the fluid, a low-pressure and a high-pressure hydraulic accumulator being provided, said accumulators being connected to a hydrostatic drive (6, 8) on the gas side as an energy recovery device, and wherein the permeable membrane carries out degasification of fluids on the low-pressure side of the energy recovery device, characterised in that the low-pressure side of the energy recovery device is connected to a container with the permeable membrane on its liquid inlet side and in that the liquid outlet side of the container is connected to a conveying device (34, 84) in the form of a spring-loaded differential piston pump or a Venturi nozzle.
Method for regulating the current intensity (I act) of the electric current flowing through an inductive load, wherein the load is connected in series with a switching apparatus and a current measuring device and in parallel with a freewheeling element, and the switching apparatus is actuated to set the current intensity (I act) during a pulse width modulation period, characterized in that a mean load voltage (U mL) to be set in the pulse width modulation period is determined from an input current intensity (I E) by means of a first controller, said mean load voltage being set on the load in the pulse width modulation period by means of the switching apparatus, wherein a model matched to the load is supplied with the mean load voltage (U mL) or with a setpoint load voltage (U sL) determined from a prescribed setpoint current intensity (I setpoint) by means of a second controller, wherein the input current intensity (I E) is ascertained from the difference between the prescribed setpoint current intensity (I setpoint) and a difference variable (ΔI) between an actual current intensity (I act) through the load and a model current intensity (I model) determined by means of the model, and wherein the setpoint current intensity (I setpoint) is determined from a preset current intensity (Iv) and an overlay current intensity (I D), wherein the overlay current intensity (I D) is determined from an overlay preset current intensity (I DV) by means of an inverted transfer function (F -1) of a control loop consisting of the first controller and the load.
Method for operating a burner arrangement of a heat engine, particularly of a gas turbine, having a plurality of burners, each comprising at least one pilot burner and at least one main burner, wherein, on the basis of a preset operation of the heat engine, in a load-controlled manner: - the total quantity of fuel supplied to the burners is maintained substantially constant, - in a first group of burners, in each burner, both the pilot burner and the main burner are supplied with fuel, - in a second group of burners, the fuel supply to the main burners is interrupted, whereas the pilot burners continue to be operated, and - the quantity of fuel remaining as a result of the interruption in the fuel supply to the main burners of the second group is redistributed to the still active main burners of the first group, characterized in that the pilot burners of the burners in the second group are operated with a lower air ratio than the pilot burners in the first group. - the total quantity of fuel supplied to the burners is maintained substantially constant, - in a first group of burners, in each burner, both the pilot burner and the main burner are supplied with fuel, - in a second group of burners, the fuel supply to the main burners is interrupted, whereas the pilot burners continue to be operated, and - the quantity of fuel remaining as a result of the interruption in the fuel supply to the main burners of the second group is redistributed to the still active main burners of the first group,