mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency integrated circuit, RFIC, comprising: a bulk semiconductor die comprising a first active/passive device on a first-side of the bulk semiconductor die, a first deep trench isolation region extending from the first-side to a second-side opposite the first-side of the bulk semiconductor die; a contact layer on the second-side of the bulk semiconductor die; and a second-side dielectric layer on the contact layer, in which the first deep trench isolation region extends through the contact layer and into the second-side dielectric layer; in which the contact layer comprises a silicide layer on an entire length of the second-side of the bulk semiconductor die. a bulk semiconductor die comprising a first active/passive device on a first-side of the bulk semiconductor die, a first deep trench isolation region extending from the first-side to a second-side opposite the first-side of the bulk semiconductor die; a contact layer on the second-side of the bulk semiconductor die; and a second-side dielectric layer on the contact layer, in which the first deep trench isolation region extends through the contact layer and into the second-side dielectric layer; in which the contact layer comprises a silicide layer on an entire length of the second-side of the bulk semiconductor die.
A prosthesis or an orthosis comprising: a moveable component; an electric motor operable to move the component, wherein the motor has at least one current and/or voltage input, the application of which to the motor results in the component having at least one operating condition; a current measurement circuit which measures the current drawn by the motor, and/or a voltage measurement circuit which measures the voltage drawn by the motor; and an electronic device which controls movement of the moveable component, and stores predetermined current and/or voltage values for the motor and one or more resulting operating condition outputs of the component; wherein one of the current and voltage measurement circuits measures the current or voltage input, the electronic device compares the current or voltage input measured by the current or voltage measurement circuit with the predetermined current and/or voltage values for the motor so as to determine at least one instantaneous operating condition of the component; and the electronic device produces an output signal indicative of the determined at least one instantaneous operating condition of the component; wherein the electronic device communicates the output signal to the wearer of the prosthesis or orthosis by way of a mode of feedback characterised in that the mode of feedback includes vibrotactile or electrotactile feedback. a moveable component; an electric motor operable to move the component, wherein the motor has at least one current and/or voltage input, the application of which to the motor results in the component having at least one operating condition; a current measurement circuit which measures the current drawn by the motor, and/or a voltage measurement circuit which measures the voltage drawn by the motor; and an electronic device which controls movement of the moveable component, and stores predetermined current and/or voltage values for the motor and one or more resulting operating condition outputs of the component; wherein one of the current and voltage measurement circuits measures the current or voltage input, the electronic device compares the current or voltage input measured by the current or voltage measurement circuit with the predetermined current and/or voltage values for the motor so as to determine at least one instantaneous operating condition of the component; and the electronic device produces an output signal indicative of the determined at least one instantaneous operating condition of the component; wherein the electronic device communicates the output signal to the wearer of the prosthesis or orthosis by way of a mode of feedback characterised in that the mode of feedback includes vibrotactile or electrotactile feedback.
A multilayer body for storing food comprising a sealing layer comprising a thermoplastic resin, an oxygen absorption layer comprising a thermoplastic resin, and an oxygen barrier layer having oxygen barrier properties, the layers being laminated in the described order, wherein at least one of the sealing layer and the oxygen absorption layer comprises an ionomer as the thermoplastic resin, wherein the oxygen absorption layer comprises iron powder, and a content of the iron powder is 15% by mass or more and 50% by mass or less based on the total amount (100% by mass) of the oxygen absorption layer. at least one of the sealing layer and the oxygen absorption layer comprises an ionomer as the thermoplastic resin, wherein the oxygen absorption layer comprises iron powder, and a content of the iron powder is 15% by mass or more and 50% by mass or less based on the total amount (100% by mass) of the oxygen absorption layer.
Trailer coupling for a motor vehicle with a coupling arm, wherein the coupling arm (20; 320) is movably mounted, in particular pivotably, with the aid of a swivel bearing and relative to at least one bearing axis, on a holder which is or may be attached to the motor vehicle, between a position of use and an inoperative position, wherein the coupling arm (20; 320) in the position of use extends further back beyond a rear section of the motor vehicle for attaching a trailer or mounting a load carrier than in the inoperative position provided for when the coupling arm (20; 320) is not in use, wherein the bearing has a holder bearing location provided on the holder and a coupling arm bearing element (40; 340) carrying the coupling arm (20; 320) and mounted movably on the holder bearing location, wherein the trailer coupling has a fixing device for the immovable fixing of the coupling arm to the holder in the position of use and/or the inoperative position, wherein a bearing component (182, 382, 482) of the bearing is connected to at least one component (183, 383, 483), in particular a second bearing component (182, 382, 482) of the bearing or the coupling arm (20; 320) or a component of the fixing device, with the aid of a latching arrangement (181, 381, 481), characterised in that the component or components (183, 383, 483), in particular the coupling arm, is or are held positively on a holder component of the holder or the bearing component (182, 382, 482) of the bearing with the aid of a rear-engaging structure with a force direction towards the holder, wherein the component (183, 383, 483) is held on the holder component or bearing component (182, 382, 482) against the direction of force by the latching arrangement (181, 381, 481)..
A flywheel module (5;11;13) comprising: - a bypass transmission comprising at least three rotational members (r 1,r 2,r 3), - a flywheel which is connected to a first one (r 1) of the three rotational members, while a second one (r 2) of the rotational members is connected to an input/output of the flywheel module, - an electric machine which can operate both as a motor and as a generator and which is connected to a third one of the rotational members, - actuation means for actuating the electric machine, - a control unit for controlling the actuation means, - a clutch (C 2) comprising two clutch sections of which a first clutch section (C 2,1) is connected to the first rotational member and the second clutch section (C 2,2) is connected to the flywheel, - a brake comprising two brake sections of which a first brake section (B 1) is connected to the first rotational member and the second brake section (B 2) is connected to a firm object, and - operating means for operating the brake and the clutch, characterized in that the operating means comprise only a single actuator for operating both the clutch (C 2) and the brake. - a bypass transmission comprising at least three rotational members (r 1,r 2,r 3), - a flywheel which is connected to a first one (r 1) of the three rotational members, while a second one (r 2) of the rotational members is connected to an input/output of the flywheel module, - an electric machine which can operate both as a motor and as a generator and which is connected to a third one of the rotational members, - actuation means for actuating the electric machine, - a control unit for controlling the actuation means, - a clutch (C 2) comprising two clutch sections of which a first clutch section (C 2,1) is connected to the first rotational member and the second clutch section (C 2,2) is connected to the flywheel, - a brake comprising two brake sections of which a first brake section (B 1) is connected to the first rotational member and the second brake section (B 2) is connected to a firm object, and - operating means for operating the brake and the clutch,
Pharmaceutical composition in form of an aqueous colloid for use in targeted delivery to the liver of a person or animal, preferential delivery to the liver so as to achieve a higher drug concentration (w/w) in liver tissue than in other tissues, comprising solid particles consisting of amphiphilic particulate sulfonate and/or amphiphilic particulate sulfate of a hydrophilic cancer drug, the particles having a solubility in water or aqueous body fluid of less than 0.1 % by weight, in particular of less than 0.05 or 0.02 % by weight, and wherein 90 % or more of the colloid particles have a size of 10000 nm or less, in particular of 5000 nm or less, wherein the amphiphilic particulate sulfonate or sulfate consists of a pharmacologically active anti-cancer agent D comprising from 1 to 4 amino groups of which one or more is protonated, and of a corresponding number of sulfate or sulfonate anion, wherein the amphiphilic particulate sulfonate is represented by formula: D n+ (R 1 SO 3) - n; and the amphiphilic particulate sulfate is represented by formula: D n+ (R 2 OSO 3) - n; wherein R 1 is straight chain C 14 -C 18 alkyl; R 2 is straight chain C 14 -C 18 alkyl; n is an integer from 1 to 4. targeted delivery to the liver of a person or animal, preferential delivery to the liver so as to achieve a higher drug concentration (w/w) in liver tissue than in other tissues, comprising solid particles consisting of amphiphilic particulate sulfonate and/or amphiphilic particulate sulfate of a hydrophilic cancer drug, the particles having a solubility in water or aqueous body fluid of less than 0.1 % by weight, in particular of less than 0.05 or 0.02 % by weight, and wherein 90 % or more of the colloid particles have a size of 10000 nm or less, in particular of 5000 nm or less, wherein the amphiphilic particulate sulfonate or sulfate consists of a pharmacologically active anti-cancer agent D comprising from 1 to 4 amino groups of which one or more is protonated, and of a corresponding number of sulfate or sulfonate anion, wherein the amphiphilic particulate sulfonate is represented by formula: D n+ (R 1 SO 3) - n; and the amphiphilic particulate sulfate is represented by formula: D n+ (R 2 OSO 3) - n; wherein R 1 is straight chain C 14 -C 18 alkyl; R 2 is straight chain C 14 -C 18 alkyl; n is an integer from 1 to 4.
A method of manufacturing an optoelectronic module from a plurality of optoelectronic modules, the method comprising the steps of: - electrically mounting a plurality of active optoelectronic components (102, 202, 302, 402, 502, 602) to an active optoelectronic component substrate (104, 204, 304, 5 404, 504, 601); - surrounding each active optoelectronic component laterally by a spacer (106, 206, 306, 406, 506, 606) forming a chamber, the spacer including an optical component mounting surface (112, 212, 312, 412, 512, 612), a fluid permeable channel (114, 214, 314, 414, 514, 614), and a module mounting surface (116, 216, 316, 416, 516, 616); - applying an adhesive (122, 322, 422, 622) to each optical component mounting surface; - mounting an optical component (110, 210, 310, 410, 510, 610) to each optical component mounting surface; - curing the adhesive; - mounting the optoelectronic modules via the module mounting surfaces to an adhesive substrate, for example, to a dicing tape, wherein the mounting of the optoelectronic modules via the module mounting surfaces seals the chambers and the fluid permeable channels; - then separating the plurality of optoelectronic modules into singulated optoelectronic modules. - electrically mounting a plurality of active optoelectronic components (102, 202, 302, 402, 502, 602) to an active optoelectronic component substrate (104, 204, 304, 5 404, 504, 601); - surrounding each active optoelectronic component laterally by a spacer (106, 206, 306, 406, 506, 606) forming a chamber, the spacer including an optical component mounting surface (112, 212, 312, 412, 512, 612), a fluid permeable channel (114, 214, 314, 414, 514, 614), and a module mounting surface (116, 216, 316, 416, 516, 616); - applying an adhesive (122, 322, 422, 622) to each optical component mounting surface; - mounting an optical component (110, 210, 310, 410, 510, 610) to each optical component mounting surface; - curing the adhesive; - mounting the optoelectronic modules via the module mounting surfaces to an adhesive substrate, for example, to a dicing tape, wherein the mounting of the optoelectronic modules via the module mounting surfaces seals the chambers and the fluid permeable channels; - then separating the plurality of optoelectronic modules into singulated optoelectronic modules.
Rudder trunk for a watercraft, comprising a trunk tube, a receiving shaft and a holder for holding the trunk tube in the receiving shaft, wherein in a state of the trunk tube being arranged in the receiving shaft an intermediate space is provided between the trunk tube and the receiving shaft, wherein the holder comprises at least one holder element (21, 21a, 21b, 21c, 21d) and at least one holder complement (22, 22a, 22b, 22c, 22d), wherein the at least one holder element (21, 21a, 21b, 21c, 21d) is arranged at the trunk tube, wherein the at least one holder complement (22, 22a, 22b, 22c, 22d) is arranged at the receiving shaft, and in that the at least one holder element (21, 21a, 21b, 21c, 21d) and/or the at least one holder complement (22, 22a, 22b, 22c, 22d) projects into the intermediate space in the state of the trunk tube being arranged in the receiving shaft, wherein the trunk tube is arranged rotatably in the receiving shaft, when the intermediate space is not filled, so that the at least one holder element (21, 21a, 21b, 21c, 21d) and the at least one holder complement (22, 22a, 22b, 22c, 22d) can be aligned with respect to one another by rotating the trunk tube as viewed in the axial direction, characterized in that the trunk tube is arranged in the receiving shaft so as to be movable in the axial direction when the intermediate space is not filled, so that the at least one holder element (21, 21a, 21b, 21c, 21d) can be set down on the at least one holder complement (22, 22a, 22b, 22c, 22d), which is positioned, in particular in alignment.
Print head for a 3D printer, for three-dimensional printing on a substrate, comprising at least: - a material delivery conduit through which a material flow passes to be deposited on the substrate, - an energy source conduit through which at least one beam of an energy source, such as a laser, can pass, wherein the material and energy source conduits each have their output end towards the substrate within a nozzle, the output end of the material delivery conduit extends at least within the nozzle along an X-axis of material output from the material delivery conduit towards the substrate, the output end of the energy source conduit extends at least within the nozzle along a Y-axis of said beam towards the substrate and/or the material to be deposited, the Y-axis of the energy source conduit having a different axis from the X-axis of the material to be deposited, the print head further comprising a rotation system for at least the energy source conduit, wherein the energy source conduit is made rotatable around said X-axis of output. - a material delivery conduit through which a material flow passes to be deposited on the substrate, - an energy source conduit through which at least one beam of an energy source, such as a laser, can pass, wherein the material and energy source conduits each have their output end towards the substrate within a nozzle, the output end of the material delivery conduit extends at least within the nozzle along an X-axis of material output from the material delivery conduit towards the substrate, the output end of the energy source conduit extends at least within the nozzle along a Y-axis of said beam towards the substrate and/or the material to be deposited, the Y-axis of the energy source conduit having a different axis from the X-axis of the material to be deposited, the print head further comprising a rotation system for at least the energy source conduit, wherein the energy source conduit is made rotatable around said X-axis of output.
A gel spun UHMWPE fiber wherein the UHMWPE of the fiber has an intrinsic viscosity of at least 4 dl/g determined as described in the METHODS OF MEASUREMENT, a co-monomer content (C BR) of a least 0.05 SCB/1000TC determined as described in the METHODS OF MEASUREMENT, a mass averaged distribution of the co-monomer (C MAD) of at least 0.05 determined as described in the METHODS OF MEASUREMENT, whereby the ratio C MAD to C BR is greater than 1. a co-monomer content (C BR) of a least 0.05 SCB/1000TC determined as described in the METHODS OF MEASUREMENT, a mass averaged distribution of the co-monomer (C MAD) of at least 0.05 determined as described in the METHODS OF MEASUREMENT, whereby the ratio C MAD to C BR is greater than 1.
Process for the preparation of a sugar product from lignocellulosic material, comprising the following steps: a) optionally, pretreatment of the lignocellulosic material, b) optionally, washing of the optionally pretreated lignocellulosic material, c) enzymatic hydrolysis of the optionally washed and/or optionally pretreated lignocellulosic material using an enzyme composition comprising at least two cellulases and whereby the enzyme composition at least comprises lytic polysaccharide monooxygenase (LPMO), wherein the amount of formed gluconic acid at the end of the enzymatic hydrolysis by the oxidation by LPMO of the lignocellulosic material containing cellulose and/or cello-oligosaccharides is kept between 3 to 10 g/kg glucan present in the lignocellulosic material by adding a suitable amount of oxygen during the enzymatic hydrolysis step (c) to the lignocellulosic material, and d) optionally, recovery of a glucose containing composition. a) optionally, pretreatment of the lignocellulosic material, b) optionally, washing of the optionally pretreated lignocellulosic material, c) enzymatic hydrolysis of the optionally washed and/or optionally pretreated lignocellulosic material using an enzyme composition comprising at least two cellulases and whereby the enzyme composition at least comprises lytic polysaccharide monooxygenase (LPMO), wherein the amount of formed gluconic acid at the end of the enzymatic hydrolysis by the oxidation by LPMO of the lignocellulosic material containing cellulose and/or cello-oligosaccharides is kept between 3 to 10 g/kg glucan present in the lignocellulosic material by adding a suitable amount of oxygen during the enzymatic hydrolysis step (c) to the lignocellulosic material, and d) optionally, recovery of a glucose containing composition.
A method of managing private cryptographic keys, the method comprising: determining whether non-transitory memory of a hardware cryptographic module is available in response to a request to store a private cryptographic key; in the event the non-transitory memory of the hardware cryptographic module is available, storing the private cryptographic key therein; in the event the non-transitory memory of the hardware cryptographic module is insufficient: encrypting, by the hardware cryptographic module, the private cryptographic key with a session parameter comprising a short-term session key and a random number, to produce a first encrypted parameter; encrypting, by the hardware cryptographic module, the session parameter with a nesting parameter comprising a nesting key and a random number, to produce a second encrypted parameter, wherein the first encrypted parameter and the second encrypted parameter make up an encrypted private cryptographic key; storing the encrypted private cryptographic key in a second non-transitory memory having lower security certification than the non-transitory memory of the hardware cryptographic module. determining whether non-transitory memory of a hardware cryptographic module is available in response to a request to store a private cryptographic key; in the event the non-transitory memory of the hardware cryptographic module is available, storing the private cryptographic key therein; in the event the non-transitory memory of the hardware cryptographic module is insufficient: encrypting, by the hardware cryptographic module, the private cryptographic key with a session parameter comprising a short-term session key and a random number, to produce a first encrypted parameter; encrypting, by the hardware cryptographic module, the session parameter with a nesting parameter comprising a nesting key and a random number, to produce a second encrypted parameter, wherein the first encrypted parameter and the second encrypted parameter make up an encrypted private cryptographic key; storing the encrypted private cryptographic key in a second non-transitory memory having lower security certification than the non-transitory memory of the hardware cryptographic module. encrypting, by the hardware cryptographic module, the private cryptographic key with a session parameter comprising a short-term session key and a random number, to produce a first encrypted parameter; encrypting, by the hardware cryptographic module, the session parameter with a nesting parameter comprising a nesting key and a random number, to produce a second encrypted parameter, wherein the first encrypted parameter and the second encrypted parameter make up an encrypted private cryptographic key; storing the encrypted private cryptographic key in a second non-transitory memory having lower security certification than the non-transitory memory of the hardware cryptographic module.
An electrical lead comprising: a cylindrical lead body having an outer surface, a proximal end, a distal end and a longitudinal axis extending therethrough; and at least one row of directional electrodes disposed along the longitudinal axis of the lead body; wherein at least one of the directional electrodes includes: a raised section, at least one retention ledge (14, 16) located along at least one of a proximal or a distal edge of the directional electrode, anchoring holes which are defined by the raised section and the at least one retention ledge (14, 16), and insulating material covering the at least one retention ledge (14, 16) and extending through the anchoring holes. a cylindrical lead body having an outer surface, a proximal end, a distal end and a longitudinal axis extending therethrough; and at least one row of directional electrodes disposed along the longitudinal axis of the lead body; wherein at least one of the directional electrodes includes: a raised section, at least one retention ledge (14, 16) located along at least one of a proximal or a distal edge of the directional electrode, anchoring holes which are defined by the raised section and the at least one retention ledge (14, 16), and insulating material covering the at least one retention ledge (14, 16) and extending through the anchoring holes. a raised section, at least one retention ledge (14, 16) located along at least one of a proximal or a distal edge of the directional electrode, anchoring holes which are defined by the raised section and the at least one retention ledge (14, 16), and insulating material covering the at least one retention ledge (14, 16) and extending through the anchoring holes.