mhurhangee/ep-ind-claims huggingface dataset:
A cochlear implant, comprising: an implantable component (244, 500A) having a receiver unit (208, 344); an external charging module having a power transmitter unit; and an external data module that is physically separate from the external charging module, wherein the data module comprises a data transmitter unit; wherein the units (312, 322) are each configured to establish a transcutaneous communication link with the implantable component over which data (222, 572) and power (220, 570) is transmitted on a single shared frequency channel via a time interleaving scheme comprising successive frames (452A, 452B, 452C) each divided into at least two time slots (454A, 454B); wherein one or more of the time slots in each frame (452A, 452B, 452C) is allocated to the data transmitter unit; wherein one or more of the time slots in each frame (452A, 452B, 452C) is allocated to the power transmitter unit; wherein data (222, 572) and power (220, 570) are transmitted by the transmitter units (312, 322) during their allocated time slots (454A, 454B); wherein the one or more time slots (454A, 454B) in each frame (452A, 452B, 452C) are dynamically allocated to the power transmitter unit and the data transmitter unit in real-time based on a state of the cochlear implant; and wherein the external data module and external charging module are configured to directly exchange data with one another to synchronize the transmission of power (220, 570) and data (222, 572) on the shared frequency channel. an implantable component (244, 500A) having a receiver unit (208, 344); an external charging module having a power transmitter unit; and an external data module that is physically separate from the external charging module, wherein the data module comprises a data transmitter unit; wherein the units (312, 322) are each configured to establish a transcutaneous communication link with the implantable component over which data (222, 572) and power (220, 570) is transmitted on a single shared frequency channel via a time interleaving scheme comprising successive frames (452A, 452B, 452C) each divided into at least two time slots (454A, 454B); wherein one or more of the time slots in each frame (452A, 452B, 452C) is allocated to the data transmitter unit; wherein one or more of the time slots in each frame (452A, 452B, 452C) is allocated to the power transmitter unit; wherein data (222, 572) and power (220, 570) are transmitted by the transmitter units (312, 322) during their allocated time slots (454A, 454B); wherein the one or more time slots (454A, 454B) in each frame (452A, 452B, 452C) are dynamically allocated to the power transmitter unit and the data transmitter unit in real-time based on a state of the cochlear implant; and wherein the external data module and external charging module are configured to directly exchange data with one another to synchronize the transmission of power (220, 570) and data (222, 572) on the shared frequency channel.
Arrangement comprising a valve, which has a valve tappet that is subject to the action of a valve spring and is adjustable in an axial direction, in which arrangement, for the purpose of adjusting the valve tappet, a temperature-dependent actuating element equipped with a working piston that is movable in its axial direction is fixed to the valve, which is heatable by an electrical heating element that can be connected to an electrical voltage source, and in which arrangement a circuit arrangement is present, characterized in that there are arranged in the circuit arrangement for the purpose of setting the valve in the current supply for the heating element a TRIAC and a MOSFET connected in series, the control electrodes of which are connected to a processor, which delivers trigger pulses for the TRIAC and control signals for the MOSFET, and a diode forward-biased in the direction of the TRIAC is connected in said circuit arrangement between the drain and source electrodes of the MOSFET.
A steel strip which is provided with a metallic zinc or aluminum coating on one or both sides, wherein the coating has a coat on at least one side which substantially consists of at least one polycarboxylate and is produced in a layer deposit of carbon (measured according to the method in the description), which deposit is in the range of 10-100 mg/m 2, wherein the content of the components of the coat having a molar mass (measured according to the method in the description) above 50,000 g/mol is greater than 50 wt.% relative to the coat.
Formation process for a potassium-ion hybrid supercapacitor, the process comprising: a) supplying the potassium-ion hybrid supercapacitor comprising: - a negative electrode comprising graphite, - a positive electrode comprising activated carbon, - an electrolyte comprising at least one potassium salt, b) charging the supercapacitor at constant current in a protocol of between C x /50 and C x /2, to a charge cutoff voltage of between 3.0 V and 3.3 V, where C x is the formation capacity of the intercalation compound KC 8, c) holding the supercapacitor at the charge cutoff voltage until the leakage current is between C x /2000 and C x /500, d) discharging the supercapacitor at constant current in a protocol of between C x /50 and C x, to a discharge cutoff voltage of between 0 V and 2 V, where the process further comprises degassing the supercapacitor after one of steps b) to d). a) supplying the potassium-ion hybrid supercapacitor comprising: - a negative electrode comprising graphite, - a positive electrode comprising activated carbon, - an electrolyte comprising at least one potassium salt, - a negative electrode comprising graphite, - a positive electrode comprising activated carbon, - an electrolyte comprising at least one potassium salt, b) charging the supercapacitor at constant current in a protocol of between C x /50 and C x /2, to a charge cutoff voltage of between 3.0 V and 3.3 V, where C x is the formation capacity of the intercalation compound KC 8, c) holding the supercapacitor at the charge cutoff voltage until the leakage current is between C x /2000 and C x /500, d) discharging the supercapacitor at constant current in a protocol of between C x /50 and C x, to a discharge cutoff voltage of between 0 V and 2 V,
An electric storage device including a positive electrode, a negative electrode, a separator disposed between the positive electrode and the negative electrode, and a nonaqueous electrolyte solution in which an electrolyte is dissolved in a nonaqueous solvent, the electric storage device comprising: an inorganic filler layer disposed between the positive electrode and the negative electrode; and wherein the inorganic filler layer is disposed on a surface of the separator and wherein the separator is selected from woven fabric, nonwoven fabric, or a synthetic resin microporous membrane that is insoluble in organic solvent, characterized in that the non-aqueous electrolyte solution contains lithium difluorobis(oxalato)phosphate. an inorganic filler layer disposed between the positive electrode and the negative electrode; and wherein the inorganic filler layer is disposed on a surface of the separator and wherein the separator is selected from woven fabric, nonwoven fabric, or a synthetic resin microporous membrane that is insoluble in organic solvent, characterized in that the non-aqueous electrolyte solution contains lithium difluorobis(oxalato)phosphate.
A drug delivery device, comprising: a vacuum source capable of creating a vacuum down to about 133.3 Pa - 40kPa (1 to 300 torr); and a drug reservoir operatively coupled to the vacuum source, whereby the drug reservoir is configured to be placed under a negative pressure; wherein: the drug reservoir comprises a surface that is conformed to or is conformable with a target surface membrane of an organ to form an air-tight contact between the drug reservoir surface and the target surface membrane and wherein a fluid within the drug reservoir is in fluid communication with drug reservoir surface and the target surface membrane when the drug reservoir surface is in contact with the target surface membrane and whereby the drug reservoir is configured to create a negative pressure over the target surface membrane and thereby create a negative pressure gradient within a tissue underlying the target surface membrane which draws the fluid into the organ. a vacuum source capable of creating a vacuum down to about 133.3 Pa - 40kPa (1 to 300 torr); and a drug reservoir operatively coupled to the vacuum source, whereby the drug reservoir is configured to be placed under a negative pressure; wherein: the drug reservoir comprises a surface that is conformed to or is conformable with a target surface membrane of an organ to form an air-tight contact between the drug reservoir surface and the target surface membrane and wherein a fluid within the drug reservoir is in fluid communication with drug reservoir surface and the target surface membrane when the drug reservoir surface is in contact with the target surface membrane and whereby the drug reservoir is configured to create a negative pressure over the target surface membrane and thereby create a negative pressure gradient within a tissue underlying the target surface membrane which draws the fluid into the organ.
A complex light modulator, comprising: a phase modulator configured to modulate a phase of light; and an amplitude modulator configured to modulate an amplitude of the light, wherein the phase modulator and the amplitude modulator are configured to generate a first complex pixel having first complex light modulation characteristics and a second complex pixel having second complex light modulation characteristics, wherein the first complex pixel includes first sub-complex pixels that are provided in a 3x3 format, wherein the second complex pixel includes second sub-complex pixels that are provided in a 3x3 format, and wherein the first complex pixel and the second complex pixel respectively include a first overlapping pixel that is included in the first sub-complex pixels and the second sub-complex pixels, characterized in that the phase modulator is configured such that phases of the first sub-complex pixels form point symmetry within the 3x3 format of the first sub-complex pixels, and phases of the second sub-complex pixels form point symmetry within the 3x3 format of the second sub-complex pixels. a phase modulator configured to modulate a phase of light; and an amplitude modulator configured to modulate an amplitude of the light, wherein the phase modulator and the amplitude modulator are configured to generate a first complex pixel having first complex light modulation characteristics and a second complex pixel having second complex light modulation characteristics, wherein the first complex pixel includes first sub-complex pixels that are provided in a 3x3 format, wherein the second complex pixel includes second sub-complex pixels that are provided in a 3x3 format, and wherein the first complex pixel and the second complex pixel respectively include a first overlapping pixel that is included in the first sub-complex pixels and the second sub-complex pixels, characterized in that the phase modulator is configured such that phases of the first sub-complex pixels form point symmetry within the 3x3 format of the first sub-complex pixels, and phases of the second sub-complex pixels form point symmetry within the 3x3 format of the second sub-complex pixels.
Program-controlled cleaning and/or disinfection machine comprising a washing chamber and a device for dispensing a liquid process chemical from a storage container into the washing chamber of the program-controlled cleaning and/or disinfection machine, comprising a compressed air line that leads into the washing chamber of the machine, and comprising an intermediate container that is connected to the compressed air line by means of an interposed vacuum nozzle, which intermediate container is equipped for fluidic connection to the storage container and comprises a chamber for the intermediate storage of the process chemical, wherein air can be drawn out of the chamber by means of compressed air being conveyed through the vacuum nozzle, which is integrated into the compressed air line, it thus being possible to generate negative pressure in the intermediate container, causing the process chemical to flow into the intermediate container from the storage container.
An assembly, comprising: a ceramic package (104, 204, 304); at least one wall (106, 108, 206) raised from the ceramic package (104, 204, 304), one of the walls (106, 108, 206) for dividing a first surface region (110, 210, 310) and a second surface region (112, 212, 312) of the ceramic package (104, 204, 304); a frame (102, 202, 302) supported by the ceramic package (104, 204, 304); a first set of fiducial markers (114, 214, 314) and a second set of fiducial markers (116, 216, 316) visible on the frame (102, 202, 302); a first die (118, 218, 318) for placement onto the first surface region (110, 210, 310), the first die (118, 218, 318) including a first image sensor and respective fiducial markers (122, 222, 322) for alignment with the first set of fiducial markers (114, 214, 314); a second die (120, 220, 320) for placement onto the second surface region (112, 212, 312), the second die including (120, 220, 320) a second image sensor and respective fiducial markers (124, 224, 324) for alignment with the second set of fiducial markers (116, 216, 316); and at least one optical filter (126, 128, 226, 228, 326, 328) each associated with one of the dice (118, 120, 218, 220, 318, 320) and supported by at least one of the walls (106, 108, 206). a ceramic package (104, 204, 304); at least one wall (106, 108, 206) raised from the ceramic package (104, 204, 304), one of the walls (106, 108, 206) for dividing a first surface region (110, 210, 310) and a second surface region (112, 212, 312) of the ceramic package (104, 204, 304); a frame (102, 202, 302) supported by the ceramic package (104, 204, 304); a first set of fiducial markers (114, 214, 314) and a second set of fiducial markers (116, 216, 316) visible on the frame (102, 202, 302); a first die (118, 218, 318) for placement onto the first surface region (110, 210, 310), the first die (118, 218, 318) including a first image sensor and respective fiducial markers (122, 222, 322) for alignment with the first set of fiducial markers (114, 214, 314); a second die (120, 220, 320) for placement onto the second surface region (112, 212, 312), the second die including (120, 220, 320) a second image sensor and respective fiducial markers (124, 224, 324) for alignment with the second set of fiducial markers (116, 216, 316); and at least one optical filter (126, 128, 226, 228, 326, 328) each associated with one of the dice (118, 120, 218, 220, 318, 320) and supported by at least one of the walls (106, 108, 206).
A filament, in particular an X-ray cathode filament, which has at least one emitter filament or heating filament (4; 4') produced from a W-based material with protruding wire end sections (6, 8; 6') and mounting pins (12, 14; 12') produced from a high melting point metal or a high melting point metal alloy associated with the respective wire end sections (6, 8; 6') in order to fix the wire end sections (6, 8; 6') and produce an electrical contact, wherein the end face of at least one mounting pin (12, 14; 12') has a receptacle (18; 18') in which a wire end section (6, 8; 6') is accommodated, and the wire end section is metallurgically bonded to the mounting pin (12, 14; 12') within the receptacle (18; 18'), wherein in the axial direction of the relevant mounting pin (12, 14; 12'), a region is provided where the receptacle (18; 18') is overlapped with the relevant wire end section (6, 8; 6') and the relevant wire end section (6, 8; 6') is surrounded by the receptacle (18; 18') on both sides with respect to at least one radial direction which runs perpendicular to the axial direction, characterized in that the metallurgical bond is produced via a filler material produced from V or a V-based alloy which is metallurgically bonded to the wire end section (6, 8; 6') as well as metallurgically bonded to the mounting pin (12, 14; 12').
A method for eviscerating intestine packs of slaughtered poultry by which decapitated poultry suspended in legs or joints are eviscerated in an evisceration apparatus comprising a number of evisceration devices each comprising an evisceration spoon, which is inserted into the body of the poultry in a movement forward and towards the breast bone, then moved forward along the breast bone and finally swung towards the back of the poultry to a fully advanced position, in which the spoon surrounds the intestine pack on the breast side thereof, and where the evisceration spoon is subsequently retracted, thereby pulling the intestine pack out of the body, characterized in that a guide means of the evisceration device is inserted together with the spoon and is moved across the esophagus during the forward movement within the body, and that the guide means forms a bend on the esophagus, while the crop is being pulled loose, so that the esophagus extends from the bend to the crop in a direction more aligned with the retraction direction than the portion of the esophagus extending from the bend to the spoon.
A roof window comprising a sash and a frame adapted for receiving said sash, said sash comprising two sash side members (1a, 1b) connected to a top sash member and a bottom sash member, said sash optionally being suspended from said frame by means of suspension arms, said sash being configured to pivot around a pivot axis so as to open said sash towards an outer side of said window, each optional suspension arm extending at least partially between a sash side member (1a, 1b) and a frame side member (2a, 2b), said roof window further comprising: at least one actuator adapted for pivoting said sash between a closed position and open positions, said actuator being adapted for securing said sash in said closed position, said actuator comprising a push-pull chain and a bracket, said bracket being rigidly connected to a first end of said push-pull chain, a second end of said push-pull chain being received in an actuator housing connected to said frame, a releasable connection pin with a first pin end and a second pin end, said bracket comprising a first opening adapted for receiving said releasable connection pin, said releasable connection pin releasably connecting said bracket to at least one of said side sash member (1a, 1b) and said suspension arm, said releasable connection pin extending in a direction substantially parallel with said pivot axis through said first opening and through at least one of a second opening in said sash side member (1a, 1b) and a third opening in said suspension arm, and with said first pin end being arranged closer to a center of said sash than said second pin end, and locking means engaging said first pin end, said locking means being configured for preventing said releasable connection pin from being removed from at least one of said second opening and said third opening. at least one actuator adapted for pivoting said sash between a closed position and open positions, said actuator being adapted for securing said sash in said closed position, said actuator comprising a push-pull chain and a bracket, said bracket being rigidly connected to a first end of said push-pull chain, a second end of said push-pull chain being received in an actuator housing connected to said frame, a releasable connection pin with a first pin end and a second pin end, said bracket comprising a first opening adapted for receiving said releasable connection pin, said releasable connection pin releasably connecting said bracket to at least one of said side sash member (1a, 1b) and said suspension arm, said releasable connection pin extending in a direction substantially parallel with said pivot axis through said first opening and through at least one of a second opening in said sash side member (1a, 1b) and a third opening in said suspension arm, and with said first pin end being arranged closer to a center of said sash than said second pin end, and locking means engaging said first pin end, said locking means being configured for preventing said releasable connection pin from being removed from at least one of said second opening and said third opening.
A cluster mill blank for fabrication of dental articles comprising: a framework constructed to cooperate with a blank holder of a CAD/CAM system, wherein the framework comprises an inner periphery and an outer periphery; and a plurality of sub-blanks attached to the inner periphery of the framework; wherein the plurality of sub-blanks are aligned annularly along the inner periphery of the framework or aligned in a series of rows along the inner periphery of the framework; characterized in that the cluster mill blank further comprises a detachable holder; and the framework comprises a plurality of projections disposed along the inner periphery; wherein the plurality of sub-blanks are attached to the detachable holder; and wherein the detachable holder attaches to the inner periphery of the framework by attaching to the plurality of projections. a framework constructed to cooperate with a blank holder of a CAD/CAM system, wherein the framework comprises an inner periphery and an outer periphery; and a plurality of sub-blanks attached to the inner periphery of the framework; wherein the plurality of sub-blanks are aligned annularly along the inner periphery of the framework or aligned in a series of rows along the inner periphery of the framework;
A cable, comprising: a sheath; and a coating film covering a circumference of the sheath, the coating film adhering to the sheath, wherein a static friction coefficient of a surface of the coating film is 0.5 or less, characterized in that an adhesion strength between the sheath and the coating film is 0.30 MPa or more, and in that a parent material of the coating film is silicone rubber and is produced by curing an addition reaction type coating agent. a sheath; and a coating film covering a circumference of the sheath, the coating film adhering to the sheath, wherein a static friction coefficient of a surface of the coating film is 0.5 or less, an adhesion strength between the sheath and the coating film is 0.30 MPa or more, and in that a parent material of the coating film is silicone rubber and is produced by curing an addition reaction type coating agent.