mhurhangee/patent-ind-claim-en huggingface dataset:
A method of at least partially forming a reinforced package , the method comprising: moving a web of material in a downstream direction (M) through a web forming section ; at least partially forming a series of bag portions in the web of material during the moving the web of material through the web forming section ; feeding a plurality of constructs sequentially onto a conveyor , the conveyor moving the constructs of the plurality of constructs toward a nip roller , wherein the feeding the plurality of constructs sequentially onto the conveyor comprises placing a first construct on the conveyor , moving the first construct toward the nip roller with the conveyor , placing a second construct on the conveyor comprising partially overlapping the second construct on the first construct , and moving the first construct and the second construct toward the nip roller with the conveyor ; forming an attached web by engaging and adhering the constructs with respective bag portions of the series of bag portions of the web of material with the nip roller ; moving the attached web through a separating station , the moving the attached web comprising moving the constructs with the web of material ; separating a bag portion of the series of bag portions from a remainder of the web of material to form a bag during the moving the attached web through the separating station , the bag being attached to a construct of the plurality of constructs . moving a web of material in a downstream direction (M) through a web forming section ; at least partially forming a series of bag portions in the web of material during the moving the web of material through the web forming section ; feeding a plurality of constructs sequentially onto a conveyor , the conveyor moving the constructs of the plurality of constructs toward a nip roller , wherein the feeding the plurality of constructs sequentially onto the conveyor comprises placing a first construct on the conveyor , moving the first construct toward the nip roller with the conveyor , placing a second construct on the conveyor comprising partially overlapping the second construct on the first construct , and moving the first construct and the second construct toward the nip roller with the conveyor ; forming an attached web by engaging and adhering the constructs with respective bag portions of the series of bag portions of the web of material with the nip roller ; moving the attached web through a separating station , the moving the attached web comprising moving the constructs with the web of material ; separating a bag portion of the series of bag portions from a remainder of the web of material to form a bag during the moving the attached web through the separating station , the bag being attached to a construct of the plurality of constructs .
Organic electroluminescent device comprising: a cathode; an anode; at least one emitting layer arranged between the cathode and the anode; at least one hole-transport layer arranged between the anode and the at least one emitting layer; and at least one hole-injection layer arranged between the anode and the at least one hole-transport layer, where the at least one hole-injection layer comprises at least 90% by weight, based on the total weight of the hole-injection layer, of at least one bismuth or gallium complex, where the hole-injection layer has a thickness of from 0.5 to 5 nm; and where the reduction potential of the bismuth or gallium complex is higher than or equal to -3.5 V and lower than or equal to 0.5 V vs. Fc/Fc + , determined by cyclic voltammetry. a cathode; an anode; at least one emitting layer arranged between the cathode and the anode; at least one hole-transport layer arranged between the anode and the at least one emitting layer; and at least one hole-injection layer arranged between the anode and the at least one hole-transport layer, where the at least one hole-injection layer comprises at least 90% by weight, based on the total weight of the hole-injection layer, of at least one bismuth or gallium complex, where the hole-injection layer has a thickness of from 0.5 to 5 nm; and where the reduction potential of the bismuth or gallium complex is higher than or equal to -3.5 V and lower than or equal to 0.5 V vs. Fc/Fc + , determined by cyclic voltammetry.
A nasopharyngeal cannula comprising a main tubular body made of soft and deformable material, a sensor , and a bracket , said bracket being provided with at least one support for said sensor , in the configuration for use said tubular body being inserted within a nostril (A) of a patient (P) until a front is aligned with the pharynx of said patient (P), and said sensor , preset to measure the percentage of carbon dioxide that is present in the exhaled gas, being inserted at least partially in the other nostril (B) of the patient (P) and being struck by the exhaled flow, said bracket being coupled slidingly and rotatably to the lateral walls of said tubular body for its arrangement in any geometric configuration with respect to said tubular body , said support protruding from said bracket in a substantially radial direction with respect to said tubular body , said support comprising a seat for the accommodation of said sensor , said sensor being constituted by a cannula through which it is possible to draw the gas exhaled by the patient (P) and send it to a true capnometric transducer.
A method of manufacturing a structure for permanent attachment to a base component , comprising: aligning a first nozzle with an opening in the base component, the first nozzle being located adjacent to a first side of the base component ; forming an anchored portion on a second side of the base component , including extruding a first material through the opening and into a molding component on the second side; and extruding the first material from the first nozzle on the first side to form a 3D-printed outer shell portion of the structure , wherein the outer shell portion is integrally formed with the anchored portion . aligning a first nozzle with an opening in the base component, the first nozzle being located adjacent to a first side of the base component ; forming an anchored portion on a second side of the base component , including extruding a first material through the opening and into a molding component on the second side; and extruding the first material from the first nozzle on the first side to form a 3D-printed outer shell portion of the structure , wherein the outer shell portion is integrally formed with the anchored portion .
Current collector for diverting electrical energy from an overhead contact line to an electrically drivable vehicle, wherein the overhead contact line is fixedly arranged and the current collector is connected to the vehicle, and the sliding element comprises a carrier and at least one carbon sliding piece arranged on the support, and at least one fastening point is formed between the sliding element and the current collector for fastening the sliding element to the current collector , at least one latching means is arranged in each fastening point between the sliding element and the current collector on the side of the sliding element and, on the side of the current collector , to each of the latching means a receptacle associated thereto for this latching means, wherein each latching means and its respective associated receptacle are releasably engaged with each other by inserting and latching the latching means into its associated receptacle , characterised in that the carrier has a compressed air channel for a compressed air indicator or damage or wear indicator of the at least one carbon sliding piece , and the latching means and the receptacle associated therewith each have corresponding lead-throughs forming a continuous passage for compressed air transfer from the current collector into the compressed air channel in the carrier when the latching means and its associated receptacle are releasably engaged with each other. the overhead contact line is fixedly arranged and the current collector is connected to the vehicle, and the sliding element comprises a carrier and at least one carbon sliding piece arranged on the support, and at least one fastening point is formed between the sliding element and the current collector for fastening the sliding element to the current collector , at least one latching means is arranged in each fastening point between the sliding element and the current collector on the side of the sliding element and, on the side of the current collector , to each of the latching means a receptacle associated thereto for this latching means, wherein each latching means and its respective associated receptacle are releasably engaged with each other by inserting and latching the latching means into its associated receptacle ,
A non-aqueous electrolyte secondary battery which comprises: a positive electrode containing a transition metal oxide capable of having occluded therein and releasing metal ions, the transition metal oxide containing at least Ni and Co and having the Ni and Co constituting 50 mol% or more of the transition metal; a negative electrode capable of having occluded therein and releasing metal ions; and a non-aqueous electrolytic solution comprising a non-aqueous solvent and an electrolyte dissolved in the non-aqueous solvent, wherein the non-aqueous electrolytic solution contains a compound having a structure represented by the following general formula : wherein R 1 to R 3 are the same or different, and each is an organic group having 1 to 20 carbon atoms and optionally having a substituent, with the proviso that at least one of R 1 to R 3 has a carbon-carbon unsaturated bond; and wherein the transition metal oxide containing at least Ni and Co and having the Ni and Co constituting 50 mol% or more of the transition metal is a compound represented by the following compositional formula : Li a4 Ni b4 Co c4 M d4 O 2 ····· wherein the following numbers: 0.9≤a4≤1.1, 0.45≤b4≤0.9, 0.1≤c4≤0.5 and 0.0≤d4≤0.5 satisfy the relationships: c4<2+b4 and 0.6≤b4+c4 and b4+c4+d4=1, and M represents at least one element selected from the group consisting of Mn, Al, Mg, Zr, Fe, Ti, and Er. a positive electrode containing a transition metal oxide capable of having occluded therein and releasing metal ions, the transition metal oxide containing at least Ni and Co and having the Ni and Co constituting 50 mol% or more of the transition metal; a negative electrode capable of having occluded therein and releasing metal ions; and a non-aqueous electrolytic solution comprising a non-aqueous solvent and an electrolyte dissolved in the non-aqueous solvent, wherein the non-aqueous electrolytic solution contains a compound having a structure represented by the following general formula : wherein R 1 to R 3 are the same or different, and each is an organic group having 1 to 20 carbon atoms and optionally having a substituent, with the proviso that at least one of R 1 to R 3 has a carbon-carbon unsaturated bond; and wherein the transition metal oxide containing at least Ni and Co and having the Ni and Co constituting 50 mol% or more of the transition metal is a compound represented by the following compositional formula : Li a4 Ni b4 Co c4 M d4 O 2 ····· wherein the following numbers: 0.9≤a4≤1.1, 0.45≤b4≤0.9, 0.1≤c4≤0.5 and 0.0≤d4≤0.5 satisfy the relationships: c4<2+b4 and 0.6≤b4+c4 and b4+c4+d4=1, and M represents at least one element selected from the group consisting of Mn, Al, Mg, Zr, Fe, Ti, and Er.
A photonic integrated device for converting sound into a modulation of properties of light in the device, the device comprising - a substrate (A16); characterized in that it further comprises - a plurality of mechanical resonator structures (A120) on a surface of the substrate (A16), exposed to receive sound waves from outside the device ; - a plurality of sensing optical waveguides (A122), each sensing optical waveguides (A122) at least partly mechanically coupled to at least one of the mechanical resonator structures (A120), or a sensing optical waveguide (A122) that is at least partly mechanically coupled to all of the mechanical resonator structures (A120); - an input optical waveguide on the surface of the substrate (A16), coupled to the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122), for supplying light to the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122); - at least one output optical waveguide on the surface of the substrate (A16), coupled to the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122), for collecting light from the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122) that has been affected by vibration of plurality of mechanical resonator structures (A120). - a substrate (A16); characterized in that it further comprises - a plurality of mechanical resonator structures (A120) on a surface of the substrate (A16), exposed to receive sound waves from outside the device ; - a plurality of sensing optical waveguides (A122), each sensing optical waveguides (A122) at least partly mechanically coupled to at least one of the mechanical resonator structures (A120), or a sensing optical waveguide (A122) that is at least partly mechanically coupled to all of the mechanical resonator structures (A120); - an input optical waveguide on the surface of the substrate (A16), coupled to the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122), for supplying light to the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122); - at least one output optical waveguide on the surface of the substrate (A16), coupled to the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122), for collecting light from the plurality of sensing optical waveguides (A122) or the single sensing optical waveguide (A122) that has been affected by vibration of plurality of mechanical resonator structures (A120).
Method for operating a coupling of a drive train for a motor vehicle which has the coupling , a drive motor with an output drive shaft and a gear with a gear input shaft , in which by means of an electronic computing unit of the drive train at least one microslip of the coupling is set specifically, by which torques can be transmitted between the output drive shaft and the gear input shaft , whereby the coupling is operated with the microslip during at least a first operating phase , wherein by means of the electronic computing unit a overpressure of the coupling is set specifically, whereby the coupling is operated slip-free during at least one second operating phase different from the at least one first operating phase , and wherein the microslip is controlled by means of a controller of the electronic computing unit , characterised in that the first operating phase is performed as a test phase in which shifting of the gear does not take place and at least one control parameter is determined for controlling the microslip, wherein the second operating phase follows the test phase in terms of time in which shifting of the gear does not take place, wherein following the second operating phase by means of the electronic computing unit a further microslip of the coupling is specifically set, whereby the coupling is operated during a third operating phase following the second operating phase with the additional microslip, wherein during the third operating phase the control parameter determined in the test phase is used for controlling the microslip, and wherein in the third operating phase following the second operating phase , in which third operating phase the determined control parameter is used for controlling the microslip, shifting of the gear of the drive train is performed.
An apparatus for single shot three-dimensional imaging of an object , said apparatus comprising: an illumination system comprising an optical source for illuminating, with a multi-wavelength optical beam , a volume of the object , said volume to be imaged in three spatial dimensions, said volume having an elongated lateral cross-sectional area with a short axis , a long axis and an aspect ratio defined by the ratio of the long axis to the short axis ; an optical system for capturing and anisotropically transforming light scattered or reflected from the illuminated volume ; one or more beam splitters for splitting light emitted from said optical source into a reference beam and said multi-wavelength optical beam , and for combining said reference beam with the captured scattered or reflected light ; a spatial sampling element for sampling the anisotropically transformed captured light in a first dimension; and a measurement system comprising a two-dimensional sensor array for simultaneous capture of phase and amplitude information over a range of wavelengths of the anisotropically transformed captured light sampled by said spatial sampling element . an illumination system comprising an optical source for illuminating, with a multi-wavelength optical beam , a volume of the object , said volume to be imaged in three spatial dimensions, said volume having an elongated lateral cross-sectional area with a short axis , a long axis and an aspect ratio defined by the ratio of the long axis to the short axis ; an optical system for capturing and anisotropically transforming light scattered or reflected from the illuminated volume ; one or more beam splitters for splitting light emitted from said optical source into a reference beam and said multi-wavelength optical beam , and for combining said reference beam with the captured scattered or reflected light ; a spatial sampling element for sampling the anisotropically transformed captured light in a first dimension; and a measurement system comprising a two-dimensional sensor array for simultaneous capture of phase and amplitude information over a range of wavelengths of the anisotropically transformed captured light sampled by said spatial sampling element .
A method for providing secured communication in a power distribution communication network comprising - upon receipt of a request for the insertion of a new device to the power distribution communication network , - checking a unique ID of the new device received in the request against a list of stored new devices or suppliers stored in a data storage , - upon finding a matching entry, evaluating a predetermined device or supplier certificate against a certificate of the new device received in the request, - upon validation of the received certificate, checking to determine if the new device will fit into a predetermined network topology or relation table indicating which messages are authorized messages, wherein checking if the new device will fit into a predetermined network topology or relation table comprises looking up device specific information in the data storage and comprises an automatic rule based evaluation of the device specific information, the current network topology or the relation table stored in the data storage , - configuring the power distribution communication network to include the new device in case the new device fits into the network topology or relation table by updating the stored current network topology to define relations and rules for devices, to define the communication and relation table and to download the relation tables and processing rules to the new device and the other devices of the power distribution communication network . - upon receipt of a request for the insertion of a new device to the power distribution communication network , - checking a unique ID of the new device received in the request against a list of stored new devices or suppliers stored in a data storage , - upon finding a matching entry, evaluating a predetermined device or supplier certificate against a certificate of the new device received in the request, - upon validation of the received certificate, checking to determine if the new device will fit into a predetermined network topology or relation table indicating which messages are authorized messages, wherein checking if the new device will fit into a predetermined network topology or relation table comprises looking up device specific information in the data storage and comprises an automatic rule based evaluation of the device specific information, the current network topology or the relation table stored in the data storage , - configuring the power distribution communication network to include the new device in case the new device fits into the network topology or relation table by updating the stored current network topology to define relations and rules for devices, to define the communication and relation table and to download the relation tables and processing rules to the new device and the other devices of the power distribution communication network .
A flat lighting module comprising: a frame including a base and an extension portion extending from the base; a light source unit placed on the base , wherein the light source unit includes a plurality of light emitting devices ; and a diffusion plate placed on the light source unit , wherein a light emitting device that is the closest to the extension portion among the plurality of the light emitting devices of the light source unit is disposed separately from the extension portion at a predetermined interval (S), characterized in that the extension portion of the frame comprises at least one locking hole , wherein the diffusion plate comprises at least one locking projection , wherein the locking projection of the diffusion plate is coupled to the locking hole of the extension portion of the frame , wherein the flat lighting module further comprises: a socket disposed on the rear side of the base for the purpose of supplying electric power to the light source unit; and at least one guide disposed around the socket, wherein a distance (D1) from a first end to a second end of the guide is greater than a distance (D2) from a first end to a second end of the socket measured perpendicularly to the base . a frame including a base and an extension portion extending from the base; a light source unit placed on the base , wherein the light source unit includes a plurality of light emitting devices ; and a diffusion plate placed on the light source unit , wherein a light emitting device that is the closest to the extension portion among the plurality of the light emitting devices of the light source unit is disposed separately from the extension portion at a predetermined interval (S), characterized in that the extension portion of the frame comprises at least one locking hole , wherein the diffusion plate comprises at least one locking projection , wherein the locking projection of the diffusion plate is coupled to the locking hole of the extension portion of the frame , wherein the flat lighting module further comprises: a socket disposed on the rear side of the base for the purpose of supplying electric power to the light source unit; and at least one guide disposed around the socket, wherein a distance (D1) from a first end to a second end of the guide is greater than a distance (D2) from a first end to a second end of the socket measured perpendicularly to the base . a socket disposed on the rear side of the base for the purpose of supplying electric power to the light source unit; and at least one guide disposed around the socket, wherein a distance (D1) from a first end to a second end of the guide is greater than a distance (D2) from a first end to a second end of the socket measured perpendicularly to the base .