mhurhangee/patent-ind-claim-en huggingface dataset:
A vapour provision system comprising: a reservoir containing liquid for vaporisation; a vaporiser ; a liquid transport element comprising a plurality of fibres arranged to transport liquid from the reservoir to the vaporiser for vaporisation, wherein the liquid transport element extends into the reservoir through an opening in a wall of the reservoir; characterised by ; a collar (100; 200; 300; 400) mounted around the liquid transport element where it passes through the opening in the wall of the reservoir. a reservoir containing liquid for vaporisation; a vaporiser ; a liquid transport element comprising a plurality of fibres arranged to transport liquid from the reservoir to the vaporiser for vaporisation, wherein the liquid transport element extends into the reservoir through an opening in a wall of the reservoir; characterised by ; a collar (100; 200; 300; 400) mounted around the liquid transport element where it passes through the opening in the wall of the reservoir.
A low-weight sound-absorbing dash pad for a vehicle, comprising: a sound-absorbing member made of microfibers, and a sound-absorbing/blocking multilayer bonded to a surface of the sound-absorbing member, wherein the sound-absorbing/blocking multilayer including a first sound-absorbing layer , a sound-blocking layer , and a second sound-absorbing layer that are made of thermoplastic resin and are sequentially bonded, characterized in that the first sound-absorbing layer is made of polyethylene terephthalate, PET, the sound-blocking layer is made of at least one of olefin-based resin and olefin-based thermoplastic elastomer, TPE, the second sound-absorbing layer is made of polyethylene terephthalate, PET, and the sound-blocking layer is provided between the first and second sound-absorbing layer , wherein the microfibers are obtained by twisting melt-blown polypropylene fibers and polypropylene staple fibers together in 100 to 1000 g/m 3 , wherein the sound-absorbing/blocking multilayer has opposing first and second major surfaces, and gas transmission in a direction from the first major surface to the second major surface of the sound-absorbing/blocking multilayer is 0.1 to 30 cm 3 /cm 2 sec. a sound-absorbing member made of microfibers, and a sound-absorbing/blocking multilayer bonded to a surface of the sound-absorbing member, wherein the sound-absorbing/blocking multilayer including a first sound-absorbing layer , a sound-blocking layer , and a second sound-absorbing layer that are made of thermoplastic resin and are sequentially bonded, characterized in that the first sound-absorbing layer is made of polyethylene terephthalate, PET, the sound-blocking layer is made of at least one of olefin-based resin and olefin-based thermoplastic elastomer, TPE, the second sound-absorbing layer is made of polyethylene terephthalate, PET, and the sound-blocking layer is provided between the first and second sound-absorbing layer , wherein the microfibers are obtained by twisting melt-blown polypropylene fibers and polypropylene staple fibers together in 100 to 1000 g/m 3 , wherein the sound-absorbing/blocking multilayer has opposing first and second major surfaces, and gas transmission in a direction from the first major surface to the second major surface of the sound-absorbing/blocking multilayer is 0.1 to 30 cm 3 /cm 2 sec.
An irrigation system for anal and/or stomal irrigation, the irrigation system comprising: - a reservoir for an irrigation liquid; - a tubing system with a first end connectable to the reservoir, and a second end connectable to a catheter for provision of a first fluid path for the irrigation liquid between the reservoir and the catheter , the catheter comprising a distal end for expelling irrigation liquid from the catheter; - one or more pressure sensors including a first pressure sensor for provision of a first pressure signal; - a pump operable to pump the irrigation liquid from the reservoir to the second end of the tubing system ; and - a control system connected to the first pressure sensor and configured to operate the pump based on the first pressure signal, characterised in that the tubing system comprises a pressure channel and a first membrane , wherein the first membrane is arranged between the first fluid path and the pressure channel , and the first pressure sensor is configured to measure the pressure in the pressure channel. - a reservoir for an irrigation liquid; - a tubing system with a first end connectable to the reservoir, and a second end connectable to a catheter for provision of a first fluid path for the irrigation liquid between the reservoir and the catheter , the catheter comprising a distal end for expelling irrigation liquid from the catheter; - one or more pressure sensors including a first pressure sensor for provision of a first pressure signal; - a pump operable to pump the irrigation liquid from the reservoir to the second end of the tubing system ; and - a control system connected to the first pressure sensor and configured to operate the pump based on the first pressure signal, characterised in that the tubing system comprises a pressure channel and a first membrane , wherein the first membrane is arranged between the first fluid path and the pressure channel , and the first pressure sensor is configured to measure the pressure in the pressure channel.
Air purification device for personalised air supply having a housing which has at least one air intake region for drawing air into the housing and at least one air blow-out region for blowing air out of the housing , wherein at least one fan wheel rotatable about a fan rotation axis and at least one intake air filter for filtering the air drawn in through the air intake region are arranged in the housing , wherein a purified blow-out air stream is blown out freely from the housing of the air purification device and can be directed individually against the body, and in particular against the face, of a user, wherein the housing of the air purification device has a disc-like design, and the air intake region and the air blow-out region are arranged in the same radial plane on the circumference of the housing , characterised in that the housing of the air purification device has a circular or oval or polygonal outer contour in a view from direction parallel to the fan rotation axis , in that the fan wheel draws the air into the fan wheel during operation of the air purification device at least in a direction parallel to the fan rotation axis and blows the purified blow-out air stream away from the fan wheel in at least one direction radially to the fan rotation axis , in that the fan rotation axis is arranged perpendicularly to the direction of the radial plane of the housing , and in that the fan wheel is arranged in an interior only partly surrounded by the intake air filter or several intake air filters, and seen in the plan view from direction parallel to the fan rotation axis , a blow-out space , in which the fan wheel blows in the air on the path towards the air blow-out region of the housing during operation, is arranged in a section remaining free of the intake air filter .
A computer implemented method, comprising: identifying, for a model to be trained, a loss function that generates a loss representing a measure of performance the model seeks to optimize during training; modifying the loss function, including adding an additional term to the loss function that measures the variability of the model performance within a user group comprising different subgroups of users that are all represented by a same user group identifier, wherein each user subgroup among the different subgroups of users has a characteristic that differs from characteristics of other subgroups among the different subgroups of users; training the model using the modified loss function; receiving, from a client device, a request for a digital component, the request including a given user group identifier for a particular user group among the different groups of users; generating, by applying the trained model to information included in the request, one or more user characteristics that are not included in the request; selecting one or more digital components based on the one or more user characteristics generated by the trained model; and transmitting, to the client device, the selected one or more digital components. identifying, for a model to be trained, a loss function that generates a loss representing a measure of performance the model seeks to optimize during training; modifying the loss function, including adding an additional term to the loss function that measures the variability of the model performance within a user group comprising different subgroups of users that are all represented by a same user group identifier, wherein each user subgroup among the different subgroups of users has a characteristic that differs from characteristics of other subgroups among the different subgroups of users; training the model using the modified loss function; receiving, from a client device, a request for a digital component, the request including a given user group identifier for a particular user group among the different groups of users; generating, by applying the trained model to information included in the request, one or more user characteristics that are not included in the request; selecting one or more digital components based on the one or more user characteristics generated by the trained model; and transmitting, to the client device, the selected one or more digital components.
A hair care composition comprising: (i) silk fibroin derived from silkworm Bombyx mori ; (ii) cationic compound selected from oligo chitosan or an amino acid; and, (iii) a cosmetically acceptable vehicle; wherein said silk fibroin has a molecular weight of at least 30 kDa; wherein said oligo chitosan has 2 to 20 repeating chitin units. (i) silk fibroin derived from silkworm Bombyx mori ; (ii) cationic compound selected from oligo chitosan or an amino acid; and, (iii) a cosmetically acceptable vehicle;
A composition for topical application comprising a continuous aqueous phase, a discontinuous liquid oil phase and crisaborole, wherein the discontinuous liquid oil phase is a liquid at 25 °C, wherein the composition does not comprise a polyaphron dispersion, wherein the discontinuous liquid oil phase comprises diisopropyl adipate and/or diethyl sebacate and/or dibutyl adipate, and wherein the composition comprises less than 5 wt% by weight of the composition of glyceryl monostearate, cetyl alcohol, stearyl alcohol, stearic acid, cetyl ricinoleate, propylene glycol stearate, PEG-2 stearate, sorbitan monostearate, or mixtures of two or more thereof. wherein the discontinuous liquid oil phase is a liquid at 25 °C, wherein the composition does not comprise a polyaphron dispersion, wherein the discontinuous liquid oil phase comprises diisopropyl adipate and/or diethyl sebacate and/or dibutyl adipate, and wherein the composition comprises less than 5 wt% by weight of the composition of glyceryl monostearate, cetyl alcohol, stearyl alcohol, stearic acid, cetyl ricinoleate, propylene glycol stearate, PEG-2 stearate, sorbitan monostearate, or mixtures of two or more thereof.
An isolated polynucleotide which comprises: (i) all of each of the parainfluenza virus 5 (PIV5) NP, V/P and L genes, and (ii) an expressible heterologous non-PIV5 nucleotide sequence, wherein all of the M, F, SH and HN genes are completely removed and replaced with the expressible heterologous nucleotide.. (i) all of each of the parainfluenza virus 5 (PIV5) NP, V/P and L genes, and (ii) an expressible heterologous non-PIV5 nucleotide sequence, wherein all of the M, F, SH and HN genes are completely removed and replaced with the expressible heterologous nucleotide..
Converter arrangement having a converter that is able to be connected to a DC voltage line on the DC voltage side and to a multiphase AC voltage line on the AC voltage side, and having a short-circuit unit arranged on the AC voltage side of the converter , wherein the short-circuit unit comprises conductor branches assigned to the phases of the AC voltage line and at least one switching device , wherein the conductor branches of the short-circuit unit are able to be connected to the AC voltage line and/or to one another without an earth connection by way of the at least one switching device so as to achieve a symmetrical short circuit in the AC voltage line , wherein the converter arrangement furthermore comprises a transformer arranged in the AC voltage line , wherein the AC voltage line is connected to an AC voltage grid on a primary side of the transformer and to the converter on a secondary side, characterized in that the short-circuit unit has inductors that form a tertiary side of the transformer , wherein the conductor branches of the short-circuit unit are connected to one another at an isolated star point connection, and wherein the conductor branches are each able to be connected to one another and to the tertiary side, at their ends facing away from the star point , by way of the at least one switching device .
A method to control a road vehicle with steering rear wheels when driving along a curve; the control method comprises the steps of: determining an actual attitude angle (β) of the road vehicle , i.e. the angle (β) comprised between the longitudinal axis (x) of the road vehicle and the direction of the running speed (V) of the road vehicle in its barycentre (B); determining a desired attitude angle (β TGT ); and changing the steering angle of the rear wheels based on the difference between the actual attitude angle (β) and the desired attitude angle (β TGT ); the control method is characterized in that it comprises the further steps of: determining whether the road vehicle is in steady conditions or in non-steady conditions; determining whether the desired attitude angle (β TGT ) indicates a tendency to re-alignment; and decreasing the steering angle of the rear wheels when the desired attitude angle (β TGT ) indicates a tendency to re-alignment and only if the road vehicle is in steady conditions. determining an actual attitude angle (β) of the road vehicle , i.e. the angle (β) comprised between the longitudinal axis (x) of the road vehicle and the direction of the running speed (V) of the road vehicle in its barycentre (B); determining a desired attitude angle (β TGT ); and changing the steering angle of the rear wheels based on the difference between the actual attitude angle (β) and the desired attitude angle (β TGT ); the control method is characterized in that it comprises the further steps of: determining whether the road vehicle is in steady conditions or in non-steady conditions; determining whether the desired attitude angle (β TGT ) indicates a tendency to re-alignment; and decreasing the steering angle of the rear wheels when the desired attitude angle (β TGT ) indicates a tendency to re-alignment and only if the road vehicle is in steady conditions. determining whether the road vehicle is in steady conditions or in non-steady conditions; determining whether the desired attitude angle (β TGT ) indicates a tendency to re-alignment; and decreasing the steering angle of the rear wheels when the desired attitude angle (β TGT ) indicates a tendency to re-alignment and only if the road vehicle is in steady conditions.
Vehicle gearbox with a first gear , a further gear , a clutch sleeve and a selector fork (10a; 10b; 10c; 10d; 10e) for an actuation of the clutch sleeve , with a fork bow (16a; 16b; 16c; 16d; 16e), which at least partially encompasses the clutch sleeve , wherein the fork bow (16a; 16b; 16c; 16d; 16e) has in at least one region (18a; 18b; 18c; 18d; 18e) an axial stepping with respect to a direction of an axis of rotation of the clutch sleeve coinciding with an axis of the fork bow (16a; 16b; 16c; 16d; 16e), wherein the fork bow (16a; 16b; 16c; 16d; 16e) has a first section (98a; 98b; 98c; 98d; 98e) and a further section (100a; 100b; 100c; 100d; 100e) arranged radially adjacent to each other and axially offset against each other with respect to the direction of the axis of rotation of the clutch sleeve , wherein the first section (98a; 98b; 98c; 98d; 98e) is located radially below the stepping with respect to the axis of rotation of the clutch sleeve , wherein the further section (100a; 100b; 100c; 100d; 100e) is located radially above the stepping, wherein the stepping forms a transition between the first section (98a; 98b; 98c; 98d; 98e) and the further section (100a; 100b; 100c; 100d; 100e) is located radially between, the two sections (98a; 98b; 98c; 98d; 98e; 100a; 100b; 100c; 100d; 100e), wherein the first section (98a; 98b; 98c; 98d; 98e) at least partially engages with a groove of the clutch sleeve , wherein the groove has two side walls (86a; 88a) located axially opposite each other, wherein the selector fork (10a; 10b; 10c; 10d; 10e) is provided to move the clutch sleeve along a shifting path in a displacement direction oriented parallel to the axis of rotation of the clutch sleeve , characterised in that the clutch sleeve is in engagement with the first gear in a first shifting state and in engagement with the second gear in a further shifting state, wherein the selector fork (10a; 10b; 10c; 10d; 10e) and the clutch sleeve have in the further shifting state a position that is axially offset against a position in the first shifting state with respect to the axis of rotation of the clutch sleeve , wherein the first gear has at an outer circumference a ring overlapping in the first shifting state the clutch sleeve axially with respect to the axis of rotation of the clutch sleeve , wherein in the first shifting state both the clutch sleeve axially engages partially with the first gear and the first section (98a; 98b; 98c; 98d; 98e) of the fork bow engages partially with the first gear wherein the second section (100a; 100b; 100c; 100d; 100e) of the fork bow overlaps in the axial direction one of the two side walls of the groove , so that said side wall of the groove engages with the fork bow (16a; 16b; 16c; 16d; 16e) in the axial direction.
An image forming apparatus , comprising: an image forming section which is configured to form an image on a recording medium (P); a control section which is configured to control the image forming section to form a test image for an adjustment of the image forming section in a margin (R) of the recording medium (P) where the image is not formed; and a storage section in which different pattern images are stored, wherein the control section is configured to form a predetermined pattern image and another pattern image as the test image in the margin (R) in a size corresponding to a size of the margin (R), and wherein the control section is configured to compare the size of the margin (R) with a size of the predetermined pattern image, and if it is determined that the size of the margin (R) is larger than the size of the predetermined pattern image and that a size of a remaining area of the margin (R) is equal to or larger than a size of the other pattern image other than the predetermined pattern image, the size of the remaining area of the margin (R) being a difference of the size of the predetermined pattern image and the size of the margin (R), the control section selects the predetermined pattern image and the other pattern image other than the predetermined pattern image from among the different pattern images stored in the storage section according to the size of the margin (R) and forms the predetermined pattern image and the other pattern image in the margin (R) as the test image. an image forming section which is configured to form an image on a recording medium (P); a control section which is configured to control the image forming section to form a test image for an adjustment of the image forming section in a margin (R) of the recording medium (P) where the image is not formed; and a storage section in which different pattern images are stored, wherein the control section is configured to form a predetermined pattern image and another pattern image as the test image in the margin (R) in a size corresponding to a size of the margin (R), and wherein the control section is configured to compare the size of the margin (R) with a size of the predetermined pattern image, and if it is determined that the size of the margin (R) is larger than the size of the predetermined pattern image and that a size of a remaining area of the margin (R) is equal to or larger than a size of the other pattern image other than the predetermined pattern image, the size of the remaining area of the margin (R) being a difference of the size of the predetermined pattern image and the size of the margin (R), the control section selects the predetermined pattern image and the other pattern image other than the predetermined pattern image from among the different pattern images stored in the storage section according to the size of the margin (R) and forms the predetermined pattern image and the other pattern image in the margin (R) as the test image.
Heating system with a pressure maintenance and/or degassing device and with a heating circuit distributor , wherein a connecting unit is arranged between the pressure maintenance and/or degassing device and the heating distributor to connect them fluidically, wherein a first heating medium flow path leads from the heating circuit distributor to the pressure maintenance and/or degassing device via a pressure-dependent switching valve, and a second heating medium flow path leads from the pressure maintenance and/or degassing device to the heating circuit distributor via a pump capable of being switched on and off, depending on pressure, characterised in that the connecting unit has two separate, spaced-apart conduits on the side of the pressure maintenance and/or degassing device for the two heating medium flow paths, each with one conduit connection connectable to matching opposite conduit connections of the pressure maintenance and/or degassing device, that the connection unit has a coaxial conduit on the heating-distributor side for the two heating medium flow paths, the conduit being connectable by one single connection to a matching opposite connection on the heating circuit distributor , and that the inner conduit (13.1) of the coaxial conduit projects beyond a distributor-side end of the outer conduit (13.2) of the coaxial conduit .