mhurhangee/ep-ind-claims huggingface dataset:
Method for ascertaining a driving state of a hybrid vehicle for route segments of a driving route lying ahead, wherein the hybrid vehicle comprises an internal combustion engine, an electric machine, and an electric energy store for supplying the electric machine with electrical energy, wherein the method has the following steps: receiving driving route data, which represents the driving route lying ahead, wherein the driving route lying ahead is divided into a plurality of route segments (29a-e), and the driving route data contains route information about the route segments (29a-e); and acquiring a suitability parameter (P E, P L) for a predetermined driving state of the hybrid vehicle for each route segment (29a-e) on the basis of the route information for the respective route segment (29a-e), wherein the predefined driving state comprises at least one purely electric driving state, in which the electric machine drives the hybrid vehicle, and a second driving state (II, III), in which the internal combustion engine drives the hybrid vehicle, wherein the method is characterized in that the acquisition of the suitability parameter (P E, P L) comprises acquiring the average speed at which it is possible to drive in a route segment (29a-e) of the driving route lying ahead where possible and predefined suitability parameters are defined for predefined average speed intervals. receiving driving route data, which represents the driving route lying ahead, wherein the driving route lying ahead is divided into a plurality of route segments (29a-e), and the driving route data contains route information about the route segments (29a-e); and acquiring a suitability parameter (P E, P L) for a predetermined driving state of the hybrid vehicle for each route segment (29a-e) on the basis of the route information for the respective route segment (29a-e), wherein the predefined driving state comprises at least one purely electric driving state, in which the electric machine drives the hybrid vehicle, and a second driving state (II, III), in which the internal combustion engine drives the hybrid vehicle, wherein the method is characterized in that the acquisition of the suitability parameter (P E, P L) comprises acquiring the average speed at which it is possible to drive in a route segment (29a-e) of the driving route lying ahead where possible and predefined suitability parameters are defined for predefined average speed intervals.
A delivery device comprising a container containing a dose of a powder and having at least one exit orifice for dispensing the dose from the container, and a chamber adapted to receive the container in an operative configuration, the delivery device further comprising at least one gas inlet by which gas may enter the chamber and at least one gas outlet by which gas and entrained powder may exit the chamber, wherein the delivery device is operable to generate a gas flow through the chamber between the at least one gas inlet and the at least one gas outlet, which brings about orbital motion of the container within the chamber in that at least a central region of the container orbits a central axis of the chamber, and characterised in that the dose is greater than 100mg and the container and the chamber have substantially circular cross-sections and the diameter of the container is at least 50% of the diameter of the chamber.
Hot-forming line for producing hot-formed and press-hardened sheet steel products, having a tempering station for heating at least one sheet blank and a hot-forming and press-hardening tool, characterised in that there is provided along the hot-forming line a linear conveying system, which is formed from at least two parallel opposing rails, whereby the rails are displaceable in at least a translational direction and gripping elements are arranged on the rails, whereby the gripping elements are displaceable in axial direction of the rails and that the gripping elements can be raised and lowered orthogonally to the axial direction of the rails and that the tempering station and the hot-forming and press-hardening tool work in the same cycle, whereby the tempering station performs an opening and closing movement, and the tempering station is controlled with a time delay for its opening movement in relation to the hot-forming and press-hardening tool.
Component produced by powder metallurgy, having a body and a toothing comprising a multiplicity of teeth, wherein - a tooth space with a space bottom (13, 20, 21) is formed between two tooth flanks (14, 18), which face one another in a circumferential direction, of two adjacent teeth, - the space bottom (13, 20, 21) connects the two mutually facing tooth flanks (14, 18) to one another, and - the toothing comprises, along the circumferential direction, a densification region which has a higher density in comparison with the density of the overall component, characterized in that - a functional cutout (18, 19) is arranged on a tooth flank, and - the functional cutout (18, 19) and an outer bottom portion, which is arranged adjacently in the circumferential direction, of the space bottom are at least partially part of the densification region such that the densification region has a higher density in comparison to the density of a bottom portion, which is adjacent relative to the outer bottom portion in the circumferential direction, of the space bottom. - a tooth space with a space bottom (13, 20, 21) is formed between two tooth flanks (14, 18), which face one another in a circumferential direction, of two adjacent teeth, - the space bottom (13, 20, 21) connects the two mutually facing tooth flanks (14, 18) to one another, and - the toothing comprises, along the circumferential direction, a densification region which has a higher density in comparison with the density of the overall component, - a functional cutout (18, 19) is arranged on a tooth flank, and - the functional cutout (18, 19) and an outer bottom portion, which is arranged adjacently in the circumferential direction, of the space bottom are at least partially part of the densification region such that the densification region has a higher density in comparison to the density of a bottom portion, which is adjacent relative to the outer bottom portion in the circumferential direction, of the space bottom.
A printing method, comprising: forming an adhesion layer using a printing whereby adhesive is inkjetted, in a pattern intended to be transferred, onto a transfer layer of a transfer material in which the transfer layer is provided on a base material, or onto a transferring medium; stacking and pressing so that the adhesion layer is sandwiched by the transfer material and transferring medium; and transferring the transfer layer to the transferring medium in the pattern intended to be transferred, wherein when forming the adhesion layer, at least one of an adhesive jetting amount and jetting interval is switched between at least two or more stages, characterized in that when forming the adhesion layer, the adhesive is printed on a peripheral portion of the adhesion layer in a smaller jetting amount than on other than the peripheral portion, and at closer jetting intervals than on other than the peripheral portion. forming an adhesion layer using a printing whereby adhesive is inkjetted, in a pattern intended to be transferred, onto a transfer layer of a transfer material in which the transfer layer is provided on a base material, or onto a transferring medium; stacking and pressing so that the adhesion layer is sandwiched by the transfer material and transferring medium; and transferring the transfer layer to the transferring medium in the pattern intended to be transferred, wherein when forming the adhesion layer, at least one of an adhesive jetting amount and jetting interval is switched between at least two or more stages, characterized in that when forming the adhesion layer, the adhesive is printed on a peripheral portion of the adhesion layer in a smaller jetting amount than on other than the peripheral portion, and at closer jetting intervals than on other than the peripheral portion.
A method for audio transducer stabilization, the method comprising: - providing a sound generation panel (100, 700) for transmission of audio sound waves in response to a plurality of force inputs received from three or more audio transducers (400, 722, 724, 726, 728); - providing a mounting frame for coupling to the sound generation panel (100, 700), the mounting frame having three or more predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012) for receiving audio transducers (400, 722, 724, 726, 728); - placing the three or more audio transducers (400, 722, 724, 726, 728) in the predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012), the predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012) being configured to substantially cancel a plurality of force moments that would otherwise cause rotation of the sound generation panel when the audio transducers (400, 722, 724, 726, 728) are driven using an input drive signal; - connecting a coupler ring on each of the audio transducers (400, 722, 724, 726, 728) placed in the predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012) on the mounting frame to an outer surface of the sound generation panel (100, 700); and - driving each of the audio transducers (400, 722, 724, 726, 728) using the input drive signal from an audio amplifier. - providing a sound generation panel (100, 700) for transmission of audio sound waves in response to a plurality of force inputs received from three or more audio transducers (400, 722, 724, 726, 728); - providing a mounting frame for coupling to the sound generation panel (100, 700), the mounting frame having three or more predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012) for receiving audio transducers (400, 722, 724, 726, 728); - placing the three or more audio transducers (400, 722, 724, 726, 728) in the predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012), the predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012) being configured to substantially cancel a plurality of force moments that would otherwise cause rotation of the sound generation panel when the audio transducers (400, 722, 724, 726, 728) are driven using an input drive signal; - connecting a coupler ring on each of the audio transducers (400, 722, 724, 726, 728) placed in the predefined locations (702, 704, 706, 708, 1006, 1008, 1010, 1012) on the mounting frame to an outer surface of the sound generation panel (100, 700); and - driving each of the audio transducers (400, 722, 724, 726, 728) using the input drive signal from an audio amplifier.
A method of manufacturing an optoelectronic device (10; 50), comprising the steps of: (a) forming an array of light-emitting diodes, each light-emitting diode having a lateral dimension smaller than 30 μm; and (b) forming photoluminescent blocks opposite at least part of the light-emitting diodes, each photoluminescent block comprising semiconductor crystals having an average size smaller than 1 μm, dispersed in a binding matrix, wherein step (a) comprises manufacturing an optoelectronic circuit comprising the light-emitting diodes and wherein step (b) comprises forming non-through openings in a substrate, forming the photoluminescent blocks in some of the openings, bonding the substrate to the optoelectronic circuit and thinning the substrate to expose the photoluminescent blocks. (a) forming an array of light-emitting diodes, each light-emitting diode having a lateral dimension smaller than 30 μm; and (b) forming photoluminescent blocks opposite at least part of the light-emitting diodes, each photoluminescent block comprising semiconductor crystals having an average size smaller than 1 μm, dispersed in a binding matrix,
Fuel cell module having at least one first cathode chamber and at least one first anode chamber and also at least one first membrane, wherein the at least one first membrane is arranged between the at least one first anode chamber and the at least one first cathode chamber, wherein the fuel cell module comprises at least one first anode supply device for supplying anode gas to the at least one first anode chamber, wherein the fuel cell module comprises at least one first cathode supply device for supplying cathode gas to the at least one first cathode chamber, wherein the fuel cell module comprises at least one anode disposal device for discharging anode residual gas from the at least one first anode chamber, wherein the fuel cell module comprises at least one first cathode disposal device for discharging cathode residual gas from the at least one first cathode chamber, wherein the at least one first anode supply device comprises at least one first anode gas coupling, wherein the at least one first cathode supply device comprises at least one first cathode gas coupling, wherein the at least one first anode disposal device comprises at least one first anode residual gas coupling, wherein the at least one first cathode disposal device comprises at least one first cathode residual gas coupling, wherein the at least one first anode gas coupling, the at least one first cathode gas coupling and the at least one first anode residual gas coupling, the at least one first cathode residual gas coupling are each embodied as a quick-action coupling, wherein the fuel cell module comprises at least one first anode connection having at least one first anode coupling, wherein the fuel cell module comprises at least one first cathode connection having at least one first cathode coupling, wherein the at least one first anode gas coupling, the at least one first cathode gas coupling and the at least one first anode residual gas coupling, the at least one first cathode residual gas coupling, the at least one first anode coupling, and the at least one first cathode coupling are arranged on one side of the fuel cell module, characterized in that all couplings are self-coupling, wherein the fuel cell module comprises at least one front water drain coupling, wherein the front water drain coupling is arranged on the side of the module housing which is opposite to the side of the module housing on which the other couplings are arranged.
A fuel oil comprising a major proportion of a mixture of A) a middle distillate fuel oil and B) a biofuel oil, in an A:B mixing ratio = 99:1 to 1:99 and also C) 0.001 to 5% by weight of an oil-soluble, crosslinked block copolymer composed of C 2 - to C 4 -alkylene oxides. A) a middle distillate fuel oil and B) a biofuel oil, in an A:B mixing ratio = 99:1 to 1:99 and also C) 0.001 to 5% by weight of an oil-soluble, crosslinked block copolymer composed of C 2 - to C 4 -alkylene oxides.
A method for producing a tri-carbobenzoxy-arginine, comprising adding carbobenzoxy chloride and a base in a water/organic solvent bilayer system to an arginine or arginine derivative represented by the following formula, or a salt thereof: wherein A 1 and A 2 each represent an amino group protecting group or a hydrogen atom; and R 1 represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms optionally having a substituent, or an aralkyl group having 7 to 15 carbon atoms optionally having a substituent, to carbobenzoxylate the arginine or arginine derivative represented by the formula, or a salt thereof, wherein, the tri-carbobenzoxy-arginine is represented by the following formula: wherein Cbz represents a benzyloxycarbonyl group. wherein A 1 and A 2 each represent an amino group protecting group or a hydrogen atom; and R 1 represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms optionally having a substituent, or an aralkyl group having 7 to 15 carbon atoms optionally having a substituent, to carbobenzoxylate the arginine or arginine derivative represented by the formula, or a salt thereof, wherein, the tri-carbobenzoxy-arginine is represented by the following formula:
A medical system, comprising: a catheter body, an expandable element made from a compliant natural rubber emulsion, and a cryogenic coolant source in fluid communication with the expandable element; characterised by: a deployable support structure coupled to the catheter body; the deployable support structure enclosing the expandable element and the expandable element being independently controllable. a catheter body, an expandable element made from a compliant natural rubber emulsion, and a cryogenic coolant source in fluid communication with the expandable element; a deployable support structure coupled to the catheter body; the deployable support structure enclosing the expandable element and the expandable element being independently controllable.
A filter fabric for an actively ventilated air purification system having a filter substrate formed from at least one live moss and provided along a thickness direction for ventilation, and having a carrier fabric on which the filter substrate is cultivated and arranged, characterized in that the carrier fabric has a honeycomb structure formed from a plurality of honeycomb cells in which the filter substrate is cultivated and arranged and whose honeycomb walls extend parallel to the thickness direction of the filter substrate and are designed to be absorbent.
A mechanical joint, comprising: a first component with an aperture; a second component; a flanged retainer including a base and a flange, the base including a bore and a counterbore that extends longitudinally along a centerline into the base from a longitudinal end of the base to the bore, and the flange extending radially out from and circumferentially about the base at the longitudinal end of the base, wherein the flange longitudinally engages the first component and the base projects longitudinally through the aperture and longitudinally engages the second component; and a fastener including an anchor and a shaft, the anchor seated within the counterbore, and the shaft projecting longitudinally from the anchor, through the bore, and at least to the second component; characterised in that the flange is angularly offset from an adjacent outer circumferential side of the base by a first angle prior to assembly of the mechanical joint; in that the flange is angularly offset from the adjacent outer circumferential side of the base by a second angle after assembly of the mechanical joint, and the second angle is larger than the first angle, wherein the second angle is an acute angle. a first component with an aperture; a second component; a flanged retainer including a base and a flange, the base including a bore and a counterbore that extends longitudinally along a centerline into the base from a longitudinal end of the base to the bore, and the flange extending radially out from and circumferentially about the base at the longitudinal end of the base, wherein the flange longitudinally engages the first component and the base projects longitudinally through the aperture and longitudinally engages the second component; and a fastener including an anchor and a shaft, the anchor seated within the counterbore, and the shaft projecting longitudinally from the anchor, through the bore, and at least to the second component; characterised in that the flange is angularly offset from an adjacent outer circumferential side of the base by a first angle prior to assembly of the mechanical joint; in that the flange is angularly offset from the adjacent outer circumferential side of the base by a second angle after assembly of the mechanical joint, and the second angle is larger than the first angle, wherein the second angle is an acute angle.
A fusion protein, comprising (a) an extracellular component comprised of a binding domain that specifically binds a target, (b) an intracellular component comprised of an intracellular signaling domain, and (c) a hydrophobic component connecting the extracellular and intracellular components, wherein the extracellular component comprises an extracellular portion of a CD200R and the intracellular signaling domain comprises an intracellular signaling domain of CD28.
An intraluminal sensing guidewire, comprising: a flexible elongate member configured to be positioned within a body lumen of a patient, wherein the flexible elongate member comprises a metallic core wire extending along a longitudinal axis; a sensing element disposed at a distal portion of the flexible elongate member and configured to obtain physiological data while positioned within the body lumen; an electrical connector disposed at a proximal portion of the flexible elongate member; and a filar bundle disposed between the sensing element and the electrical connector, the filar bundle comprising: a first conductive filar (310; 330) comprising a first material strength, wherein the first conductive filar is in electrical communication with sensing element and the electrical connector; characterized in that the filar bundle further comprises a first reinforcement filar comprising a second material strength greater than the first material strength. a flexible elongate member configured to be positioned within a body lumen of a patient, wherein the flexible elongate member comprises a metallic core wire extending along a longitudinal axis; a sensing element disposed at a distal portion of the flexible elongate member and configured to obtain physiological data while positioned within the body lumen; an electrical connector disposed at a proximal portion of the flexible elongate member; and a filar bundle disposed between the sensing element and the electrical connector, the filar bundle comprising: a first conductive filar (310; 330) comprising a first material strength, wherein the first conductive filar is in electrical communication with sensing element and the electrical connector; a first conductive filar (310; 330) comprising a first material strength, wherein the first conductive filar is in electrical communication with sensing element and the electrical connector;
A thin film transistor, comprising: a base substrate; a metal light-shielding layer and a first active layer which are on the base substrate; and a spacer layer between the first active layer and the metal light-shielding layer, wherein the first active layer comprises a source region, a drain region and a channel region between the source region and the drain region, and in a direction perpendicular to the base substrate, the orthographic projection of the spacer layer on the base substrate completely overlaps or is located within the orthographic projection of the channel region of the first active layer on the base substrate, the thin film transistor further comprises a buffer layer between the first active layer and the metal light-shielding layer, the spacer layer serves as a second active layer, the second active layer is between the first active layer and the buffer layer, and the first active layer comprises polysilicon and the second active layer comprises amorphous silicon so that a resistivity of the second active layer is greater than a resistivity of the first active layer. a base substrate; a metal light-shielding layer and a first active layer which are on the base substrate; and a spacer layer between the first active layer and the metal light-shielding layer, wherein the first active layer comprises a source region, a drain region and a channel region between the source region and the drain region, and in a direction perpendicular to the base substrate, the orthographic projection of the spacer layer on the base substrate completely overlaps or is located within the orthographic projection of the channel region of the first active layer on the base substrate, the thin film transistor further comprises a buffer layer between the first active layer and the metal light-shielding layer, the spacer layer serves as a second active layer, the second active layer is between the first active layer and the buffer layer, and the first active layer comprises polysilicon and the second active layer comprises amorphous silicon so that a resistivity of the second active layer is greater than a resistivity of the first active layer.