mhurhangee/patent-ind-claim-en huggingface dataset:
A system for preparing a pharmaceutical compound, comprising: a computing device comprising a user interface providing an operator with instructions for preparing the pharmaceutical compound and at least one processor operatively connected to the user interface ; a scale operatively connected to the at least one processor ; and an enclosure comprising an image capture device having a field of view positioned to capture an image of an object positioned on the scale during the preparation of the pharmaceutical compound, the image capture device operatively connected to the at least one processor , wherein the scale transmits a signal to the at least one processor to verify a correct amount of at least one component of the pharmaceutical compound based on a weight of the at least one component, and characterized in that : the image capture device captures an image of the object positioned on the scale when the at least one processor verifies the correct amount of the at least one component. a computing device comprising a user interface providing an operator with instructions for preparing the pharmaceutical compound and at least one processor operatively connected to the user interface ; a scale operatively connected to the at least one processor ; and an enclosure comprising an image capture device having a field of view positioned to capture an image of an object positioned on the scale during the preparation of the pharmaceutical compound, the image capture device operatively connected to the at least one processor , wherein the scale transmits a signal to the at least one processor to verify a correct amount of at least one component of the pharmaceutical compound based on a weight of the at least one component, and characterized in that : the image capture device captures an image of the object positioned on the scale when the at least one processor verifies the correct amount of the at least one component.
A drinking vessel (200; 300; 400; 500), wherein the drinking vessel comprises a bowl which, in a horizontal cross-section, has a peripheral shape which is not circular, wherein the drinking vessel has an axis of symmetry (S) and a device for rotating the bowl about the axis of symmetry, wherein the bowl has a bulgy area , wherein the bowl has an upper rim and optionally a waist area, wherein the bowl tapers from the bulgy area upwards to the upper rim or, if the bowl has a waist area, tapers to the waist area, characterized in that the axis of symmetry (S) is a 180° axis of rotational symmetry (S) and the peripheral shape is oval and/or elliptical.
An artificial honeycomb characterised in that the artificial honeycomb comprises 3 kinds of comb fragments wherein, one of them is a double-sided comb fragment and the other two are one-sided comb fragments, the one-sided comb fragments being movable relative to each other and being also movable relative to the double-sided comb fragment, to independently change the cells position on both sides of the honeycomb from closed to open and vice versa.
A bar valve comprising: an elongate housing having a first inlet located towards a first end of the housing , a second inlet located towards a second end of the housing , and an outlet located between the first inlet and the second inlet ; a mixing chamber within the housing , the mixing chamber being configured to receive first and second input flows from the first inlet and second inlet , respectively; and a flow controller configured to receive a mixed flow from the mixing chamber and controllably output an outlet flow to the outlet ; the mixing chamber and flow controller being disposed sequentially in a region of the housing between the first end and the outlet , thereby confining the mixed flow and the outlet flow to the region of the housing between the first end and the outlet . an elongate housing having a first inlet located towards a first end of the housing , a second inlet located towards a second end of the housing , and an outlet located between the first inlet and the second inlet ; a mixing chamber within the housing , the mixing chamber being configured to receive first and second input flows from the first inlet and second inlet , respectively; and a flow controller configured to receive a mixed flow from the mixing chamber and controllably output an outlet flow to the outlet ; the mixing chamber and flow controller being disposed sequentially in a region of the housing between the first end and the outlet , thereby confining the mixed flow and the outlet flow to the region of the housing between the first end and the outlet .
Flap of a motor vehicle , having a flap body to which a trim strip is attached at the outer side, wherein a radar-sensor unit with a housing is accommodated by the trim strip , wherein a printed circuit board is arranged in the housing , wherein a radar antenna is attached to that side of the printed circuit board which is situated opposite the flap body , and wherein the radar antenna is a constituent part of a radar-sensor chip , characterized in that , on the side of the radar antenna , only components having a smaller height than the radar-sensor chip are attached to the printed circuit board .
A pharmaceutical composition of a polyethylene glycol-modified camptothecin derivative obtainable by a preparation process, prepared by the following components: a polyethylene glycol-modified camptothecin derivative, pH adjuster and water for injection, the pharmaceutical composition comprises 100 to 500 mg of the polyethylene glycol-modified camptothecin derivative, wherein in the preparation process, the pH value of aqueous solution for injection comprising the polyethylene glycol-modified camptothecin derivative is adjusted to the range of 3.0 to 4.0 by the pH adjuster, and then a lyophilized preparation is prepared in accordance with a freeze-drying procedure, wherein: the polyethylene glycol-modified camptothecin derivative has the structure of general formula (I): wherein: PEG represents a polyethylene glycol residue, PEG has a molecular weight of 300 to 60,000 Daltons; A 1 and A 2 represent the same or different amino acid residues; m is an integer of 2 to 12; n is an integer of 0 to 6; and CPT is a camptothecin derivative residue, and the camptothecin derivative is selected from the group consisting of: 10-hydroxycamptothecin, 7-ethyl-10-hydroxycamptothecin, 9-nitrocamptothecin, 9-aminocamptothecin, irinotecan, topotecan, belotecan, exatecan, lurtotecan, diflutamide, diflomotecan, gimatecan or karenitecin. PEG represents a polyethylene glycol residue, PEG has a molecular weight of 300 to 60,000 Daltons; A 1 and A 2 represent the same or different amino acid residues; m is an integer of 2 to 12; n is an integer of 0 to 6; and CPT is a camptothecin derivative residue, and the camptothecin derivative is selected from the group consisting of: 10-hydroxycamptothecin, 7-ethyl-10-hydroxycamptothecin, 9-nitrocamptothecin, 9-aminocamptothecin, irinotecan, topotecan, belotecan, exatecan, lurtotecan, diflutamide, diflomotecan, gimatecan or karenitecin.
A method of transmitting a phase-tracking reference signal, PTRS, related to sidelink by a user equipment, UE, in a wireless communication system, the method comprising: generating (S1201) a demodulation reference signals, DMRS, related to a physical sidelink shared channel, PSSCH; generating (S1202) the PTRS related to the PSSCH; and transmitting (S1203) at least a portion of the DMRS and the PTRS, wherein: a resource region of a physical sidelink control channel, PSCCH, overlaps with at least a part of a resource region of the PSSCH, a DMRS sequence mapped to a predetermined position in a first PSSCH symbol in which the DMRS is transmitted is used to generate the PTRS; the predetermined position corresponds to a frequency position at which the PTRS is transmitted; and the predetermined position includes a frequency position at which transmission of the generated DMRS is skipped. generating (S1201) a demodulation reference signals, DMRS, related to a physical sidelink shared channel, PSSCH; generating (S1202) the PTRS related to the PSSCH; and transmitting (S1203) at least a portion of the DMRS and the PTRS, wherein: a resource region of a physical sidelink control channel, PSCCH, overlaps with at least a part of a resource region of the PSSCH, a DMRS sequence mapped to a predetermined position in a first PSSCH symbol in which the DMRS is transmitted is used to generate the PTRS; the predetermined position corresponds to a frequency position at which the PTRS is transmitted; and the predetermined position includes a frequency position at which transmission of the generated DMRS is skipped. a resource region of a physical sidelink control channel, PSCCH, overlaps with at least a part of a resource region of the PSSCH, a DMRS sequence mapped to a predetermined position in a first PSSCH symbol in which the DMRS is transmitted is used to generate the PTRS; the predetermined position corresponds to a frequency position at which the PTRS is transmitted; and the predetermined position includes a frequency position at which transmission of the generated DMRS is skipped.
Filter element , in particular filter cartridge, for filtering exhaust gases or process gases, having a filter body which defines a longitudinal direction (R) and is subdivided along the latter into a plurality of substantially tubular filter body elements which are each connected in pairs at their end portions pointing towards one another, the filter body defining an interior space of the filter element , characterized in that two filter body elements which are connected to one another in pairs are screwed to one another by means of internal and external threads which are formed at their end portions and correspond to one another, and are additionally bonded to one another in their contact regions by means of an adhesive , wherein the filter body elements , which are respectively connected to one another in pairs, are adhesively bonded to one another at their end faces and in the engagement region of the internal and external threads .
A process for cracking a hydrocarbon feedstock, comprising the steps of: • feeding hydrocarbon feedstock and dilution steam to a reactor; • bringing the hydrocarbon feedstock and dilution steam to supersonic velocities in the reactor at a temperature T1; • adding further dilution steam at a temperature T2, where T2 is higher than T1; followed by • applying a shockwave to the preheated hydrocarbon feedstock and dilution steam mixture to induce cracking of the hydrocarbon feedstock, to convert at least a part of the hydrocarbon mixture to produce olefins; wherein the hydrocarbon feedstock, the dilution steam and/or a mixture thereof are preheated before entering the reactor and wherein the preheating is carried out at least partially by means of one or more electrically powered heat sources, wherein sensible or latent heat of effluent exiting the reactor is extracted at least partially by means of one or more heat exchangers and used to at least partially preheat the hydrocarbon feedstock, dilution steam or mixture thereof, wherein the electrically powered heat sources are powered by electricity produced with a standard emission factor of less than 200 kg (0.2 ton) CO 2 per MWh electricity. • feeding hydrocarbon feedstock and dilution steam to a reactor; • bringing the hydrocarbon feedstock and dilution steam to supersonic velocities in the reactor at a temperature T1; • adding further dilution steam at a temperature T2, where T2 is higher than T1; followed by • applying a shockwave to the preheated hydrocarbon feedstock and dilution steam mixture to induce cracking of the hydrocarbon feedstock, to convert at least a part of the hydrocarbon mixture to produce olefins; wherein the hydrocarbon feedstock, the dilution steam and/or a mixture thereof are preheated before entering the reactor and wherein the preheating is carried out at least partially by means of one or more electrically powered heat sources, wherein sensible or latent heat of effluent exiting the reactor is extracted at least partially by means of one or more heat exchangers and used to at least partially preheat the hydrocarbon feedstock, dilution steam or mixture thereof, wherein the electrically powered heat sources are powered by electricity produced with a standard emission factor of less than 200 kg (0.2 ton) CO 2 per MWh electricity. wherein the hydrocarbon feedstock, the dilution steam and/or a mixture thereof are preheated before entering the reactor and wherein the preheating is carried out at least partially by means of one or more electrically powered heat sources, wherein sensible or latent heat of effluent exiting the reactor is extracted at least partially by means of one or more heat exchangers and used to at least partially preheat the hydrocarbon feedstock, dilution steam or mixture thereof, wherein the electrically powered heat sources are powered by electricity produced with a standard emission factor of less than 200 kg (0.2 ton) CO 2 per MWh electricity.
A wheel module for a vehicle , in particular for an electric scooter or e-scooter, having a wheel axle and a wheel , wherein the wheel comprises a wheel rim , wherein the wheel rim is rotatably mounted on the wheel axle , having a braking device for the wheel , wherein the braking device comprises a brake lining and a brake disc for interacting with the brake lining , wherein the brake disc is axially movable for braking the wheel , characterized in that the braking device comprises a hydraulic device with a hydraulic chamber , which is annular in a lateral plan view, and with an annular piston for executing a stroke and a return stroke in the hydraulic chamber , and that the hydraulic device is fastened to the wheel axle and is arranged concentrically with the wheel rim . having a wheel axle and a wheel , wherein the wheel comprises a wheel rim , wherein the wheel rim is rotatably mounted on the wheel axle , having a braking device for the wheel , wherein the braking device comprises a brake lining and a brake disc for interacting with the brake lining , wherein the brake disc is axially movable for braking the wheel , characterized in that the braking device comprises a hydraulic device with a hydraulic chamber , which is annular in a lateral plan view, and with an annular piston for executing a stroke and a return stroke in the hydraulic chamber , and that the hydraulic device is fastened to the wheel axle and is arranged concentrically with the wheel rim .
A microfluidic system comprising a network of microfluidic channels having first and second ends coupled variously to one another at end-channel intersections , wherein two channels are pump channels each having a short side and a long side distinguished by a first fluid actuator located asymmetrically between opposite ends of the pump channel, the first fluid actuator configured to generate a wave propagating toward the opposite ends of the pump channel and producing a unidirectional net fluid flow through the pump channel, wherein the first fluid actuator is located toward a first end of the pump channel, a second fluid actuator located asymmetrically in the pump channel toward a second end of the pump channel, wherein the two pump channels intersect each other between the respective first and second fluid actuators to form a middle-channel intersection such that a flow of fluid divides and follows different directions through the pump channels at the intersection , and a controller configured to selectively activate the first and second fluid actuators to generate bidirectional fluid flow through the network.
A method by a first network node for enabling paging of a user equipment, UE, in an inactive state, the method comprising: while the UE is in a connected state or during an initial context setup for the UE, receiving, by the first network node, a UE identity index value for the UE; storing the UE identity index value; transitioning the UE from the connected state to an inactive state; using the UE identity index value to determine a paging occasion for transmitting a page to the UE; and transmitting the page to the UE at the paging occasion, wherein the UE identity index value is received in a message from the UE. while the UE is in a connected state or during an initial context setup for the UE, receiving, by the first network node, a UE identity index value for the UE; storing the UE identity index value; transitioning the UE from the connected state to an inactive state; using the UE identity index value to determine a paging occasion for transmitting a page to the UE; and transmitting the page to the UE at the paging occasion, wherein the UE identity index value is received in a message from the UE.
A disk brake for a utility vehicle, having a brake calliper that engages over a brake disk , is configured as a sliding calliper, is fastened to a positionally fixed brake carrier and has a central opening above the brake disk ; two brake pads that are arranged in the brake calliper , can be moved in opposite directions and each have a pad carrier plate to which a friction lining is fastened, it being possible to press an action-side or application-side brake pad against the brake disk via at least one brake plunger by means of a brake application device; and at least one restoring device by means of which the brake pads can be returned after the braking-induced movement and release of the brake, the brake pads being arranged in pad slots between pairs of brake carrier horns , and portions of their undersides sitting on bearing faces of a pad slot base of the brake carrier formed by a bridge arch (6d, 6'd) of the brake carrier , the restoring device having at least one restoring element that is attached to a brake pad , is arranged between this brake pad and a positionally fixed reference, and exerts a restoring force on the brake pad , the at least one restoring element exercising a traction force as a restoring force on the brake pad to which the at least one restoring element is attached, fastening arms (17b; 18b) of the at least one restoring element being attached to a pressure side of a pad carrier plate of the brake pad , the at least one restoring element being attached centrally to an upper, lower and/or lateral edge region of the pad carrier plate on the pad carrier plate of the brake pad , at least one spring arm (17d, 17f; 18a) of the at least one restoring element being connected to the positionally fixed reference, characterised in that the at least one spring arm (17f; 18a) of the at least one restoring element is connected to the bridge arch (6d, 6'd) of the brake carrier as a positionally fixed reference. the restoring device having at least one restoring element that is attached to a brake pad , is arranged between this brake pad and a positionally fixed reference, and exerts a restoring force on the brake pad , the at least one restoring element exercising a traction force as a restoring force on the brake pad to which the at least one restoring element is attached, fastening arms (17b; 18b) of the at least one restoring element being attached to a pressure side of a pad carrier plate of the brake pad , the at least one restoring element being attached centrally to an upper, lower and/or lateral edge region of the pad carrier plate on the pad carrier plate of the brake pad , at least one spring arm (17d, 17f; 18a) of the at least one restoring element being connected to the positionally fixed reference, characterised in that the at least one spring arm (17f; 18a) of the at least one restoring element is connected to the bridge arch (6d, 6'd) of the brake carrier as a positionally fixed reference.
A method of video denoising programmed in a non-transitory memory of a device comprising: estimating motion to generate motion estimation information based on a current noisy frame and a previously denoised frame ; generating a motion estimation-compensated previous patch with the motion estimation information; selecting, for the current noisy frame, patches of the current noisy frame with a noise level above a predetermined threshold as a plurality of noisy patches of the current frame; processing a current noisy patch of the plurality of noisy patches from the current noisy frame and the motion estimation-compensated previous patch to generate a denoised patch for the current noisy patch; and aggregating the denoised patch and additional denoised patches of the plurality of noisy patches of the current frame to generate a denoised frame and wherein processing the current noisy patch from the current noisy frame and the motion estimation-compensated previous patch to generate the denoised patch includes: generating a difference patch from the current noisy patch and a previous denoised patch ; when a sum of absolute values of the difference patch is greater than a threshold , the current noisy patch is denoised to generate the denoised patch ; and when the sum of absolute values of the difference patch is not greater than the threshold , the difference patch is denoised , the denoised difference patch and the previous denoised patch are used to determine a temporal denoised patch , and blending the temporal denoised patch and the current noisy patch to generate the denoised patch . estimating motion to generate motion estimation information based on a current noisy frame and a previously denoised frame ; generating a motion estimation-compensated previous patch with the motion estimation information; selecting, for the current noisy frame, patches of the current noisy frame with a noise level above a predetermined threshold as a plurality of noisy patches of the current frame; processing a current noisy patch of the plurality of noisy patches from the current noisy frame and the motion estimation-compensated previous patch to generate a denoised patch for the current noisy patch; and generating a difference patch from the current noisy patch and a previous denoised patch ; when a sum of absolute values of the difference patch is greater than a threshold , the current noisy patch is denoised to generate the denoised patch ; and when the sum of absolute values of the difference patch is not greater than the threshold , the difference patch is denoised , the denoised difference patch and the previous denoised patch are used to determine a temporal denoised patch , and blending the temporal denoised patch and the current noisy patch to generate the denoised patch .
Adjustment mechanism for adjusting a bridge of a timepiece movement of a watch, fixed to a structure , said adjustment mechanism comprising, coaxial and movable one with respect to the other by sliding along a common axis (D10) and/or in rotation with respect to said axis (D10), which defines the adjustment direction, and returned one towards the other by an elastic return means or pressed one against the other by a clamping means, a first component arranged so as to be fixed to said structure or to said bridge , and at least one second component arranged so as to be fixed to said bridge or respectively to said structure , said first component including, on a first annular or circular sector around said axis (D10), a first relief facing a second relief that said second component includes on a second annular or respectively circular sector around said axis (D10), said first relief and said second relief having variable cooperation depending on the relative angular position between said first component and said second component , each said particular relative angular position defining a particular distance H value between reference surfaces (S1, S2) perpendicular to said axis (D10) of said first component and of said second component , characterised in that said first relief and said second relief are arranged to guide said first component and said second component in an additional relative rotation towards a stable position among a finite number of stable equilibrium positions when they are pushed one towards the other, and in that each said stable position corresponds to a particular distance value among a finite number of possible distance values between said reference surfaces (S1, S2).