mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a hollow wheel which comprises an internal toothing and an external toothing, wherein the internal toothing is a gear toothing, wherein a workpiece is machined by way of at least one stamping tool , wherein the workpiece comprises a tubular section with a longitudinal axis (Z) as well as at least one first stabilisation section (4; 4') which is connected to the tubular section for shape stabilisation of the tubular section during the machining by way of the at least one stamping tool , wherein a die is provided for receiving the tubular section , the die comprising a tubular opening in which an internal die toothing is provided, and the tubular section is inserted into the tubular opening , and the workpiece is subsequently machined on the inner side of the tubular section inserted into the tubular opening by way of the at least one stamping tool for simultaneously producing the internal toothing and external toothing, as the workpiece executes a rotation movement with a temporally varying rotation speed about said longitudinal axis (Z) and the at least one stamping tool executes radially oscillating movements which are synchronised with said rotation movement, so that the at least one stamping too 1 forms the tubular section into the die toothing for producing the external toothing and simultaneously producing the internal toothing by way of repeated hammering machining of the tubular section , wherein the term radially characterizes alignments perpendicular to the longitudinal axis (Z).
A method for determining a spring constant/rigidity corresponding to at least one of a torsional and a lateral mode of a cantilever of a known shape, the method involving: measuring a resonance frequency of the cantilever in a plurality of static equilibrium positions in which the shape of the cantilever is different and the torsional and lateral modes are coupled, and determining a spring constant and/or rigidity of the cantilever using the measured frequencies, wherein the measured resonance frequency is at least one of a torsional resonance frequency, and a lateral resonance frequency, wherein the spring constant is at least one of a torsional spring constant, and a lateral spring constant and/or the rigidity is at least one of a torsional rigidity, and a lateral rigidity, wherein in at least one of the plurality of static equilibrium positions the cantilever is bent.
Apparatus for determining angular alignment between a source device and a target device, the apparatus comprising a source device, a target device, and a processing system, the source device comprising a first spatially variant field generator for generating a first spatially variant electric field, and a second spatially variant field generator for generating a second spatially variant electric field, wherein the second spatially variant electric field is angularly offset around a shared or common axis with respect to the first spatially variant electric field, the target device comprising at least one sensor configured to detect a first signal from the first spatially variant electric field and a second signal from the second spatially variant electric field, characterised in that the processing system determines angular alignment between the first source device and the target device based on the first and second signals from the first and second spatially variant electric fields detected by the target device.
Device for identifying objects or organisms in water, which are transparent in at least one part in infrared light, comprising - a basic body, comprising at least one axially symmetrical and globally convex section A , made of a material which is transparent in infrared light, - a barcode layer , applies at least partially on the at least one section A of the basic body, made of a material which is not transparent in infrared light, wherein the barcode layer is applied on the at least one section A in such a way that a barcode pattern , formed of sections of the barcode layer of equal or different widths, is produced on the at least one section A . - a basic body, comprising at least one axially symmetrical and globally convex section A , made of a material which is transparent in infrared light, - a barcode layer , applies at least partially on the at least one section A of the basic body, made of a material which is not transparent in infrared light, wherein the barcode layer is applied on the at least one section A in such a way that a barcode pattern , formed of sections of the barcode layer of equal or different widths, is produced on the at least one section A .
An external medicine for use in the treatment of diffuse plexiform neurofibromas, comprising, as an active ingredient, at least one selected from the group consisting of sirolimus, everolimus, temsirolimus, ridaforolimus, and zotarolimus, wherein the external medicine further comprises ethanol, wherein the ethanol is contained in an amount of 20 wt% to 60 wt%, wherein the active ingredient is contained in an amount of not less than 0.2 wt% and less than 0.8 wt%. wherein the external medicine further comprises ethanol, wherein the ethanol is contained in an amount of 20 wt% to 60 wt%, wherein the active ingredient is contained in an amount of not less than 0.2 wt% and less than 0.8 wt%.
An asymmetrical mitral annuloplasty band adapted for implant against a mitral valve annulus, the mitral valve annulus having a posterior aspect to which a posterior leaflet (PL) attaches and an anterior aspect to which an anterior leaflet (AL) attaches, the annulus generally defining a D- or kidney-shape looking at an inflow side thereof with the anterior aspect being straighter than the more rounded posterior aspect and a minor axis intersecting and extending across the annulus between mid-points on the anterior and posterior aspects being shorter than a major axis perpendicular thereto intersecting and extending across the annulus, the shape of the annulus as looking from inflow side being generally symmetric about the minor axis, and wherein an anterior commissure (AC) and a posterior commissure (PC) are located on the annulus at the two junctions between the two leaflets (AL, PL) with the anterior commissure (AC) located clockwise from the mid-point of the posterior leaflet (PL) and the posterior commissure (PC) located counter-clockwise from the mid-point of the posterior leaflet (PL), comprising: an elongated discontinuous body including an inner generally rigid core surrounded by a suture-permeable interface , the body defining an asymmetric shape looking at an inflow side thereof that generally conforms to a portion of the shape of the mitral annulus and extends around the entire posterior aspect and continues in a clockwise direction ending at a first free end located approximately at the intersection of the major axis and the annulus and extending farther around in a counter-clockwise direction on an opposite side past the intersection of the major axis and the annulus into the anterior aspect and ending at a second free end .
A supporting frame for an insulating frame for a roof window, said supporting frame comprising top, bottom and side supporting rails , where one or more supporting rails are configured to carry insulating elements , each supporting rail comprising one or more rail connecting sections , said supporting frame further comprising a plurality of connector brackets , each of said connector brackets comprising two bracket connecting sections each connected to a rail connecting section of a supporting rail , where each of said connector brackets detachably interconnects two supporting rails so that the respective supporting rails are perpendicular to each other or interconnects two supporting rails in longitudinal continuation of each other, and where each of said connector brackets is made of polymer, and characterised in that each of the connector brackets is double-walled with a hollow cross-section at the connecting sections and acts as a female connector, the hollow cross-section accommodating the rail connecting section , and wherein each connector bracket has an angular L-shaped cross-section at each connecting section. said supporting frame further comprising a plurality of connector brackets , each of said connector brackets comprising two bracket connecting sections each connected to a rail connecting section of a supporting rail , where each of said connector brackets detachably interconnects two supporting rails so that the respective supporting rails are perpendicular to each other or interconnects two supporting rails in longitudinal continuation of each other, and where each of said connector brackets is made of polymer, and characterised in that each of the connector brackets is double-walled with a hollow cross-section at the connecting sections and acts as a female connector, the hollow cross-section accommodating the rail connecting section , and wherein each connector bracket has an angular L-shaped cross-section at each connecting section.
A method for preparing a hookah consumable composition, the method comprising the following steps: a) providing a composition, comprising: i) 2 to 25 wt.% of one or more binding agents; ii) 5 to 85 wt.% of an aerosol generating agent, and iii) 10 to 80 wt.% of powdered cellulose; wherein the wt.% is based on the total weight of the composition, and the total amount of components taken together is 100%, wherein the composition provided in a) is prepared according to a method comprising the following steps: A1) preparing an aqueous viscous slurry of the components i)-iii), A2) casting the slurry of A1) as a thin layer on a support; A3) reducing the moisture content of the aqueous viscous slurry of A2) by application of heat and/or hot air; A4) removing the thus formed dried solid material of A3) from the support for obtaining the composition, b) shredding the composition of a), c) providing one or more additional components chosen from the group of aerosol generating agents, synthetic sweeteners, natural sugars, and aromas, d) mixing the shredded composition of b) with one or more additional components of c) for obtaining the hookah consumable composition, wherein step d) is carried out in such a way that the total amount of aerosol generating agents in the hookah consumable composition thus obtained is in a range of 30 - 85 wt.%, based on the total weight of the hookah consumable composition. a) providing a composition, comprising: i) 2 to 25 wt.% of one or more binding agents; ii) 5 to 85 wt.% of an aerosol generating agent, and iii) 10 to 80 wt.% of powdered cellulose; wherein the wt.% is based on the total weight of the composition, and the total amount of components taken together is 100%, wherein the composition provided in a) is prepared according to a method comprising the following steps: A1) preparing an aqueous viscous slurry of the components i)-iii), A2) casting the slurry of A1) as a thin layer on a support; A3) reducing the moisture content of the aqueous viscous slurry of A2) by application of heat and/or hot air; A4) removing the thus formed dried solid material of A3) from the support for obtaining the composition, i) 2 to 25 wt.% of one or more binding agents; ii) 5 to 85 wt.% of an aerosol generating agent, and iii) 10 to 80 wt.% of powdered cellulose; A1) preparing an aqueous viscous slurry of the components i)-iii), A2) casting the slurry of A1) as a thin layer on a support; A3) reducing the moisture content of the aqueous viscous slurry of A2) by application of heat and/or hot air; A4) removing the thus formed dried solid material of A3) from the support for obtaining the composition, b) shredding the composition of a), c) providing one or more additional components chosen from the group of aerosol generating agents, synthetic sweeteners, natural sugars, and aromas, d) mixing the shredded composition of b) with one or more additional components of c) for obtaining the hookah consumable composition,
An elastic composite structure comprising: a first web layer comprising a first portion , a second portion , and a third portion arranged in a width-wise direction of the elastic composite structure ; a second web layer comprising a first portion and a second portion arranged in the width-wise direction; a plurality of elastic threads positioned adjacently to the second and third portions of the first web layer ; wherein the first portion of the first web layer is folded over in the width-wise direction and overlaps the second portion of the first web layer ; wherein the folded first portion of the first web layer is directly bonded to one of the second portion of the first web layer and the first portion of the second web layer ; wherein a first portion of the plurality of elastic threads is constrained between the folded first portion of the first web layer and the second portion of the first web layer absent adhesive; and wherein the third portion of the first web layer is directly bonded to the second portion of the second web layer and traps a second portion of the plurality of elastic threads therebetween. a first web layer comprising a first portion , a second portion , and a third portion arranged in a width-wise direction of the elastic composite structure ; a second web layer comprising a first portion and a second portion arranged in the width-wise direction; a plurality of elastic threads positioned adjacently to the second and third portions of the first web layer ; wherein the first portion of the first web layer is folded over in the width-wise direction and overlaps the second portion of the first web layer ; wherein the folded first portion of the first web layer is directly bonded to one of the second portion of the first web layer and the first portion of the second web layer ; wherein a first portion of the plurality of elastic threads is constrained between the folded first portion of the first web layer and the second portion of the first web layer absent adhesive; and wherein the third portion of the first web layer is directly bonded to the second portion of the second web layer and traps a second portion of the plurality of elastic threads therebetween.
An electromagnetic energy delivery system comprising: a set of radio frequency channels ; each channel configured to receive a set of reference signals and comprising: a phase compensation component configured to determine a phase difference between at least a subset of the reference signals ; compare the phase difference with a predetermined reference phase difference; and determine a reference signal compensation offset value based on the comparison of the phase difference and the predetermined reference phase difference; and a phase-locked loop component configured to generate a phase-shifted signal wherein the phase shift is based on at least the reference signal compensation offset value. a phase compensation component configured to determine a phase difference between at least a subset of the reference signals ; compare the phase difference with a predetermined reference phase difference; and determine a reference signal compensation offset value based on the comparison of the phase difference and the predetermined reference phase difference; and a phase-locked loop component configured to generate a phase-shifted signal wherein the phase shift is based on at least the reference signal compensation offset value.
A compartmental analyzer that is configured to perform compartmental analysis of dynamics of a tracer in a brain on the basis of a strength of an electromagnetic wave from the tracer in the brain measured by a measurement apparatus , wherein the compartmental analyzer includes: a rate constant calculation unit and wherein the rate constant calculation unit is configured to calculate rate constants as parameters for analyzing the dynamics of cerebral blood flow in the brain when the tracer moves between compartments in a specified region-of-interest of the brain on the basis of a strength of an electromagnetic wave in a first compartment corresponding to a cerebral blood vessel in the brain measured by the measurement apparatus or an input function in the first compartment, a strength of an electromagnetic wave in a second compartment corresponding to brain tissue in the brain measured by the measurement apparatus, and a strength of an electromagnetic wave in a third compartment corresponding to a cerebral sulcus or a cerebral ventricle in the brain measured by the measurement apparatus wherein the rate constants comprise a first rate constant when the tracer moves from the first compartment to the second compartment, a second rate constant when the tracer moves from second compartment to the first compartment, a third rate constant when the tracer moves from the first compartment to the third compartment, a fourth rate constant when the tracer moves from the third compartment to the first compartment, a fifth rate constant when the tracer moves from the third compartment to the second compartment, and a sixth rate constant when the tracer moves from the second compartment to the third compartment. a rate constant calculation unit and wherein the rate constant calculation unit is configured to calculate rate constants as parameters for analyzing the dynamics of cerebral blood flow in the brain when the tracer moves between compartments in a specified region-of-interest of the brain on the basis of a strength of an electromagnetic wave in a first compartment corresponding to a cerebral blood vessel in the brain measured by the measurement apparatus or an input function in the first compartment, a strength of an electromagnetic wave in a second compartment corresponding to brain tissue in the brain measured by the measurement apparatus, and a strength of an electromagnetic wave in a third compartment corresponding to a cerebral sulcus or a cerebral ventricle in the brain measured by the measurement apparatus wherein the rate constants comprise a first rate constant when the tracer moves from the first compartment to the second compartment, a second rate constant when the tracer moves from second compartment to the first compartment, a third rate constant when the tracer moves from the first compartment to the third compartment, a fourth rate constant when the tracer moves from the third compartment to the first compartment, a fifth rate constant when the tracer moves from the third compartment to the second compartment, and a sixth rate constant when the tracer moves from the second compartment to the third compartment.
A container for performing two-stage nucleic acid amplification on a sample in a closed system comprising a first-stage reaction zone comprising a first-stage reaction blister comprising a plurality of pairs of primers for amplification of a plurality of targets for first-stage amplification of the sample, an additional reservoir fluidly connected to the first-stage reaction blister , the additional reservoir configured for providing additional fluids to the sample, and a second-stage reaction zone fluidly connected to the first-stage reaction zone , the second-stage reaction zone comprising a plurality of second-stage reaction chambers, each second-stage reaction chamber comprising a pair of primers provided for further amplification of a portion of the sample, the second-stage reaction zone configured for thermal cycling of all of the plurality of second-stage reaction chambers, wherein the first-stage amplification is multiplex amplification for a plurality of targets, and each pair of primers in the second-stage reaction chambers is configured for further amplification of one of the first-stage targets.
A device configured to operate in an industrial automation environment, the device comprising: a main electronic board including: a processing unit ; a memory ; an industrial communication interface to communicate with an external device via an industrial communication protocol; a peripheral board configured to perform a sensing or a control function in the industrial automation environment; and a general-purpose bus communicatively coupled to the main electronic board and configured to communicate with the peripheral board during operation of the device ; wherein the main electronic board is configured to: when the general-purpose bus is coupled to an external memory device , receive configuration data related to the sensing or control function of the device via the general-purpose bus and store the received configuration data in the memory , and characterized in that the device is configured to: when the general-purpose bus is disconnected from the external memory device and coupled to the peripheral board , operate to perform the sensing or control function in accordance with the received configuration data. a main electronic board including: a processing unit ; a memory ; an industrial communication interface to communicate with an external device via an industrial communication protocol; a peripheral board configured to perform a sensing or a control function in the industrial automation environment; and a general-purpose bus communicatively coupled to the main electronic board and configured to communicate with the peripheral board during operation of the device ; wherein the main electronic board is configured to: when the general-purpose bus is coupled to an external memory device , receive configuration data related to the sensing or control function of the device via the general-purpose bus and store the received configuration data in the memory , and characterized in that the device is configured to: when the general-purpose bus is disconnected from the external memory device and coupled to the peripheral board , operate to perform the sensing or control function in accordance with the received configuration data. a processing unit ; a memory ; an industrial communication interface to communicate with an external device via an industrial communication protocol; a peripheral board configured to perform a sensing or a control function in the industrial automation environment; and a general-purpose bus communicatively coupled to the main electronic board and configured to communicate with the peripheral board during operation of the device ; wherein the main electronic board is configured to: when the general-purpose bus is coupled to an external memory device , receive configuration data related to the sensing or control function of the device via the general-purpose bus and store the received configuration data in the memory , and characterized in that the device is configured to: when the general-purpose bus is disconnected from the external memory device and coupled to the peripheral board , operate to perform the sensing or control function in accordance with the received configuration data.