mhurhangee/ep-ind-claims huggingface dataset:
A dial device for ascertaining an amount of insulin to be injected, comprising portions of flat material arranged in layers which form a disk-like housing body, having a plurality of dials, which are rotatable relative to one another about a common axis of rotation that extends orthogonally to the portions of flat material, wherein a first dial has a plurality of input scales, each with equidistant distribution of scale lines, and a output scale, and the plurality of input scales are arranged in various radial spacings and concentrically to the axis of rotation, and each input scale is assigned a first parameter; wherein a second dial has a plurality of windows, which are embodied in such a way and arranged in various radial spacings concentrically to the axis of rotation, that each respective window, given a suitably selectable rotary position of the second dial relative to the first dial, enables a visual inspection of the input scale, and each respective window has a setting mark; wherein a third dial has a plurality of reading scales, arranged concentrically and in succession in the circumferential direction, each with equidistant scale lines, and each reading scale is assigned a second parameter, and the respective reading scale borders the output scale either radially inward or radially outward; wherein a fourth dial is provided as a cover disk, which has a window which extends radially and in the circumferential direction and which in a selectable rotary position enables an inspection of the reading scale of the third dial and of the output scale of the first dial and, through a window in the second dial, of the input scale of the first dial; wherein the second dial and the third dial and the fourth dial can be positioned nonrotatably in a selected rotary position relative to one another; and wherein after the rotary position of the second and third dials (78, 80) has been adjusted relative to one another, in accordance with a value of the first and second parameters (84, 92), the first dial can be positioned opposite with respect to the setting mark at the window of the second dial and then, at a value of the reading scale as a reading mark, a value on the output scale that is equivalent to the amount of insulin to be injected can be read out.
A medical system comprising: an indwelling medical system including an indwelling catheter and an indwelling access port; said indwelling catheter having a first end configured to be inserted into tissue of a host; said indwelling access port coupled to a second end of said indwelling catheter; a lumen provided by said indwelling access port and said indwelling catheter; said indwelling access port including a needle which selectively extends out, through skin, of the host from the indwelling access port and retracts into the host to the indwelling access port; a patency system including an elongated shaft sized and shaped to be extended through the needle and received within the lumen of said access port and said indwelling catheter wherein said shaft has flexibility and kink resistance to be advanced through said lumen including within bends of said lumen; at least one cleaner located on said elongated shaft; said at least one cleaner configured to dislodge at least a portion of debris formed within said lumen of said indwelling catheter; and at least one balloon positioned at an end of said elongated shaft, said at least one balloon, when inflated, forms a seal with an interior surface of said lumen of said catheter to thereby prevent dislodged debris from exiting said catheter. an indwelling medical system including an indwelling catheter and an indwelling access port; said indwelling catheter having a first end configured to be inserted into tissue of a host; said indwelling access port coupled to a second end of said indwelling catheter; a lumen provided by said indwelling access port and said indwelling catheter; said indwelling access port including a needle which selectively extends out, through skin, of the host from the indwelling access port and retracts into the host to the indwelling access port; a patency system including an elongated shaft sized and shaped to be extended through the needle and received within the lumen of said access port and said indwelling catheter wherein said shaft has flexibility and kink resistance to be advanced through said lumen including within bends of said lumen; at least one cleaner located on said elongated shaft; said at least one cleaner configured to dislodge at least a portion of debris formed within said lumen of said indwelling catheter; and at least one balloon positioned at an end of said elongated shaft, said at least one balloon, when inflated, forms a seal with an interior surface of said lumen of said catheter to thereby prevent dislodged debris from exiting said catheter.
A printing device, wherein the printing device has at least one supply line system and wherein the printing device has at least one basic body, which has a first main side and a second main side and wherein said at least one basic body has at least two passages, which respectively connect at least one channel with the second main side of said at least one basic body and wherein at least one ink reservoir and/or at least one solvent reservoir and/or at least one inkjet printing head and/or at least one coupling element for reservoirs on the second main side of said at least one basic body, are respectively connected and/or connectable directly and/or via at least one interconnected connecting line with at least one of the at least two passages of the at least one channel and wherein said at least one basic body on its first main side has at least two channels through which respectively at least one line of said at least one supply line system, delimited by said at least one basic body on the one hand and said at least one cover and/or said at least one sealing element on the other hand are defined, characterized in that said at least one basic body has on its main side at least one compensating recess (34; 47), through which at least one compensating volume of said at least one supply line system, delimited by said at least one basic body on the one hand and said at least one cover and/or at least one sealing element on the other hand is defined and in that the compensating volume is connected via at least one passage with the second main side of said at least one basic body and in that a volume delimiting said at least one compensating volume may be modified by compression and/or decompression of at least one damping body.
An electrolytic treatment system to decontaminate the surface (2, 12) of a radioactively contaminated metallic workpiece (1, 11) comprises at least a radioactively contaminated workpiece (1,11), an electrolyte solution (4,18) a power supply and two electrodes (6, 15), characterised in that: each electrode comprises a head and the system is deployed such that at least the head of each electrode is located in an electrolyte solution (4, 18), each in close proximity to the surface but not in direct electrical contact and separated from the surface by the electrolyte solution by a distance sufficient to allow movement of the electrodes along the surface, the system comprises insulation (7, 16) in the electrolyte solution between the electrodes, said insulation minimising any direct current path between the electrodes otherwise than through the workpiece.
An engine combustion chamber structure, having a heat-insulating member comprising: a heat-insulating porous layer formed with ceramics on the inner walls of engine components, each constituting an engine combustion chamber; and a dense surface layer formed with ceramics on a surface of said heat-insulating porous layer; characterized in that a second bonding layer is provided between said inner walls of said engine component and said heat-insulating porous layer, a thermal expansion coefficient of the second bonding layer is an intermediate value between thermal expansion coefficients of the heat-insulating porous layer and the engine component, and a Young's module of the second bonding layer is lower than those of the heat-insulating porous layer and the engine component. a heat-insulating porous layer formed with ceramics on the inner walls of engine components, each constituting an engine combustion chamber; and a dense surface layer formed with ceramics on a surface of said heat-insulating porous layer; characterized in that a second bonding layer is provided between said inner walls of said engine component and said heat-insulating porous layer, a thermal expansion coefficient of the second bonding layer is an intermediate value between thermal expansion coefficients of the heat-insulating porous layer and the engine component, and a Young's module of the second bonding layer is lower than those of the heat-insulating porous layer and the engine component.
A liquid ejection head, comprising: a recording element substrate including an ejection orifice for ejecting liquid, a pressure chamber provided with an energy generating element for generating energy used to eject liquid, a liquid supply path for supplying liquid to the pressure chamber, and a liquid collecting path for collecting liquid from the pressure chamber, wherein the liquid supply path, the pressure chamber, and the liquid collecting path of the recording element substrate constitute a part of a circulation path in which liquid flows in the order mentioned, and a flow resistance R In of a flow path including the liquid supply path at a supply side is greater than a flow resistance R Out of a flow path including the liquid collecting path at a collection side characterized in that, when a capillary force of a portion of the ejection orifice at the time of liquid ejection is represented by P Noz, a pressure of the flow path at the supply side is represented by P In, a differential pressure between the capillary force P Noz and the pressure of the flow path at the supply side P In is represented by ΔP in, a pressure of the flow path at the collection side is represented by P Out, and a differential pressure between the capillary force P Noz and the pressure of the flow path at the collection side P Out is represented by ΔP out, a relationship of 0.8 ≤ (ΔP in /R In)/(ΔP Out /R Out) ≤ 1.2 is satisfied. a recording element substrate including an ejection orifice for ejecting liquid, a pressure chamber provided with an energy generating element for generating energy used to eject liquid, a liquid supply path for supplying liquid to the pressure chamber, and a liquid collecting path for collecting liquid from the pressure chamber, wherein the liquid supply path, the pressure chamber, and the liquid collecting path of the recording element substrate constitute a part of a circulation path in which liquid flows in the order mentioned, and a flow resistance R In of a flow path including the liquid supply path at a supply side is greater than a flow resistance R Out of a flow path including the liquid collecting path at a collection side characterized in that, when a capillary force of a portion of the ejection orifice at the time of liquid ejection is represented by P Noz, a pressure of the flow path at the supply side is represented by P In, a differential pressure between the capillary force P Noz and the pressure of the flow path at the supply side P In is represented by ΔP in, a pressure of the flow path at the collection side is represented by P Out, and a differential pressure between the capillary force P Noz and the pressure of the flow path at the collection side P Out is represented by ΔP out, a relationship of 0.8 ≤ (ΔP in /R In)/(ΔP Out /R Out) ≤ 1.2 is satisfied.
Planetary gear train for a wind power plant, comprising - a drive side planetary stage rotating in a gear train housing, - an output side spur gear stage downstream of the planetary stage, - a sun wheel shaft non-rotatably connected to a sun wheel of the planetary stage and - a hollow shaft which is coaxially surrounded by a spur gear of the spur gear stage and is non-rotatably connected to said spur gear, wherein - the sun wheel shaft and the hollow shaft are non-rotatably connected to one another by a toothed coupling, in which an outer toothing of the sun wheel shaft meshes with an inner toothing of the hollow shaft, and abut one another in the region of an axial contact surface, and - the gear train has oil feed ducts (43, 46, 48), which, for pressure lubrication of the toothed coupling and the axial contact surface, establish a connection between an oil inlet connected to the gear train housing on the one hand and the toothed coupling and the axial contact surface on the other hand. - a drive side planetary stage rotating in a gear train housing, - an output side spur gear stage downstream of the planetary stage, - a sun wheel shaft non-rotatably connected to a sun wheel of the planetary stage and - a hollow shaft which is coaxially surrounded by a spur gear of the spur gear stage and is non-rotatably connected to said spur gear, - the sun wheel shaft and the hollow shaft are non-rotatably connected to one another by a toothed coupling, in which an outer toothing of the sun wheel shaft meshes with an inner toothing of the hollow shaft, and abut one another in the region of an axial contact surface, and - the gear train has oil feed ducts (43, 46, 48), which, for pressure lubrication of the toothed coupling and the axial contact surface, establish a connection between an oil inlet connected to the gear train housing on the one hand and the toothed coupling and the axial contact surface on the other hand.
A weighing method with an automatic micro-calibration function, comprising the steps of: installing and connecting a material tank to a self-calibration weighing module and a control system; sending an instruction, by the control system, for performing an automatic adjustment to the self-calibration weighing module; performing the automatic adjustment by loading the material tank by the self-calibration weighing module, and displaying loaded weight data and performing the steps of: determining in the control system whether a result of the automatic adjustment meets the predetermined requirement, and, only if the result of the automatic adjustment does not meet the predetermined requirement, instructing, by the control system, the self-calibration weighing module to perform an automatic calibration; performing the step of weighing the fine formulation materials using weighing control on the fine formulation materials by a feeding system of the material tank; and switching, by the control system, back to calibrated data of the material tank, and weighing large-weight mixed solvent materials. installing and connecting a material tank to a self-calibration weighing module and a control system; sending an instruction, by the control system, for performing an automatic adjustment to the self-calibration weighing module; performing the automatic adjustment by loading the material tank by the self-calibration weighing module, and displaying loaded weight data and performing the steps of: determining in the control system whether a result of the automatic adjustment meets the predetermined requirement, and, only if the result of the automatic adjustment does not meet the predetermined requirement, instructing, by the control system, the self-calibration weighing module to perform an automatic calibration; determining in the control system whether a result of the automatic adjustment meets the predetermined requirement, and, only if the result of the automatic adjustment does not meet the predetermined requirement, instructing, by the control system, the self-calibration weighing module to perform an automatic calibration; performing the step of weighing the fine formulation materials using weighing control on the fine formulation materials by a feeding system of the material tank; and switching, by the control system, back to calibrated data of the material tank, and weighing large-weight mixed solvent materials.
A method for performing, by a UE, a beam failure recovery procedure in a wireless communication system, the method comprising: detecting a beam failure, wherein the beam failure is detected based on a value of a Beam Failure Instance, BFI, counter being equal to or greater than a beam Failure Instance Max Count; based on the detection of the beam failure, transmitting (S1720, S1820) a Physical Uplink Control Channel, PUCCH, related to a Beam Failure Recovery, BFR; and transmitting (S1740, S1840) a Medium Access Control Control Element, MAC CE, that includes information related to the beam failure for at least one serving cell, characterized in that the value of the BFI counter is determined for each of the at least one serving cell, wherein a MAC Protocol Data Unit, PDU for the transmission of the MAC CE via Uplink, UL,-Shared Channel, SCH, is generated based on a multiplexing and assembly operation, wherein the information related to the beam failure for at least one serving cell includes information representing the beam failure being detected, wherein the PUCCH related to the BFR is transmitted after a value of the BFI counter for a first Secondary Cell, SCell, is equal to or greater than the beam Failure Instance Max Count, and wherein the at least one serving cell includes i) the first SCell and ii) at least one second SCell whose value of the BFI counter is equal to or greater than the beam Failure Instance Max Count, after the transmission of the PUCCH related to the BFR, before the multiplexing and assembly operation. detecting a beam failure, wherein the beam failure is detected based on a value of a Beam Failure Instance, BFI, counter being equal to or greater than a beam Failure Instance Max Count; based on the detection of the beam failure, transmitting (S1720, S1820) a Physical Uplink Control Channel, PUCCH, related to a Beam Failure Recovery, BFR; and transmitting (S1740, S1840) a Medium Access Control Control Element, MAC CE, that includes information related to the beam failure for at least one serving cell, characterized in that the value of the BFI counter is determined for each of the at least one serving cell, wherein a MAC Protocol Data Unit, PDU for the transmission of the MAC CE via Uplink, UL,-Shared Channel, SCH, is generated based on a multiplexing and assembly operation, wherein the information related to the beam failure for at least one serving cell includes information representing the beam failure being detected, wherein the PUCCH related to the BFR is transmitted after a value of the BFI counter for a first Secondary Cell, SCell, is equal to or greater than the beam Failure Instance Max Count, and wherein the at least one serving cell includes i) the first SCell and ii) at least one second SCell whose value of the BFI counter is equal to or greater than the beam Failure Instance Max Count, after the transmission of the PUCCH related to the BFR, before the multiplexing and assembly operation.
Clutch/torsional vibration damper assembly for a hybrid drive train of a motor vehicle, having a torsional vibration damper which has two rotary parts (3, 4) which are connected to one another fixedly so as to rotate together, a first rotary part being prepared for being connected fixedly to an output shaft of an internal combustion engine so as to rotate with it, and a second rotary part being arranged such that it can be damped in a rotational movement relative to the first rotary part, a clutch device which is attached to the second rotary part by way of a first clutch constituent part which, in an engaged position of the clutch device, is connected fixedly to a second clutch constituent part so as to rotate with it, and a leaf spring unit which is attached in the second clutch constituent part in such a way that an additional axial pressing force for pressing the clutch constituent parts (6, 7) onto one another is introduced by way of the said leaf spring unit in a first rotational direction of the first clutch constituent part relative to the second clutch constituent part, characterized in that the first clutch constituent part has at least one friction disc which is received on a radial inner side of a sleeve region of the second rotary part fixedly so as to rotate with it and such that it can be displaced in the axial direction.
Side trim device for installation on a utility vehicle, having a side trim element, having a rear mudguard device (10.1, 10.2) for the utility vehicle and having an installation device for the installation of the side trim element on the utility vehicle, wherein at least one mudguard panel (4.1, 4.2) for the mudguard device (10.1, 10.2) is integrated into the side trim element such that the side trim element itself forms the at least one mudguard panel (4.1, 4.2), characterized in that the installation device has a bearing structure and a crossmember, which can be installed on the bearing structure, for holding the side trim element and the rear mudguard device (10.2), wherein the bearing structure has at least one upper and one lower attachment formation (7.1) for the crossmember, such that the rear mudguard device (10.2) can be held at a variable height, wherein the rear mudguard panel (4.2) of the side trim element and a mudguard panel stub of the rear mudguard device (10.2) overlap in sections regardless of whether the crossmember together with the rear mudguard device (10.2) is installed on the lower or the upper attachment formation (7.1).
A method in a User Equipment, UE, for Multiple-Input and Multiple-Output, MIMO, detection of signals received from a radio network node, comprised in a wireless communication network, the method comprising: receiving a signal of the radio network node; establishing a list of hypotheses candidate vector; computing path metrics of the established list of hypotheses candidate vector, and thereby computing Log-Likelihood Ratios, LLRs, utilising the computed path metrics for achieving MIMO detection, wherein the computed path metrics of the established list of hypotheses candidate vector is expressed as: μ x L, x L − 1,..., x 1 = μ x L − 1,..., x 1 + γ L x L + ∑ m = 1 L − 1 δ Lm x L x m. wherein γ k x n ≡ − R x n * z k + x n 2 G k, k 2, δ mn x y ≅ R x * G m, m y, wherein G = H H H and z = H H y wherein H is a effective channel matrix, wherein y = Hx + w, wherein w is a complex white Gaussian noise vector, wherein x k is a candidate symbol of a k-th layer, wherein R{...} is a real part of {...}. receiving a signal of the radio network node; establishing a list of hypotheses candidate vector; computing path metrics of the established list of hypotheses candidate vector, and thereby computing Log-Likelihood Ratios, LLRs, utilising the computed path metrics for achieving MIMO detection, wherein the computed path metrics of the established list of hypotheses candidate vector is expressed as: μ x L, x L − 1,..., x 1 = μ x L − 1,..., x 1 + γ L x L + ∑ m = 1 L − 1 δ Lm x L x m. wherein γ k x n ≡ − R x n * z k + x n 2 G k, k 2, δ mn x y ≅ R x * G m, m y, wherein G = H H H and z = H H y wherein H is a effective channel matrix, wherein y = Hx + w, wherein w is a complex white Gaussian noise vector, wherein x k is a candidate symbol of a k-th layer, wherein R{...} is a real part of {...}.