mhurhangee/patent-ind-claim-en huggingface dataset:
Handling device for drill pipes of a drilling device for creating a deep borehole, having at least one pipe rack which is arranged vertically on a working plane of the drilling device and has an open portion through which the drill pipes can be introduced into the pipe rack or removed from the pipe rack , wherein the pipe rack is provided with a guide element by means of which a handling space delimited by the guide element on the one hand and the pipe rack on the other hand is created in the region of the open portion, wherein the handling device has at least one gripping element for gripping the drill pipe , wherein the gripping element is movable horizontally and vertically, and wherein the drill pipe can be moved by way of the gripping element in the region of the handling space and from the handling space to a well centre of the drilling device , or vice versa, wherein the handling device has a lower portion and a spatially separately arranged upper portion , and wherein the gripping element is arranged on the lower portion , wherein the handling device has a holding element which is arranged on the upper portion and which encloses the drill pipe in the horizontal direction with a holding action, wherein the holding element is configured in such a way that, in the holding state, it allows a vertical movement of the drill pipe .
Mobility training apparatus with a vertical guide and a treatment device guided in this guide for treating muscles M and muscle fasciae of the human body, wherein the treatment device comprises at least one elongate treatment body and is automatically movable upwards and downwards in the guide in the vertical direction by a drive, characterised in that the training apparatus comprises a holding device connected to the vertical guide and having struts , configured such that there is an area between the guide and the struts for a standing user, so that the user can hold on and brace against the struts .
Composition comprising a probiotic strain or probiotic strain mixture for therapeutic use in prevention or treatment of a condition selected from the group consisting of: the treatment or prevention of impaired mobility in an older adult; the stimulation of bone formation and/or inhibiting bone resorption in an individual having a condition comprising an imbalance between bone formation and bone resorption; treatment or prevention of synovitis; treatment or prevention of articular cartilage degradation subsequent to synovitis in an individual having or recovering from synovitis; and treatment or prevention of cartilage breakdown for increasing the bioefficacy of olive polyphenols in an individual wherein said probiotic strain or probiotic strain mixture has β-glucosidase activity and esterase activity selected from the group consisting of: Lactobacillus gasseri, Lactobacillus salivarius, Lactobacillus rhamnosus, Lactobacillus johnsonii, Lactobacillus fermentum, Lactobacillus lactis, Lactobacillus delbrueckii, Lactobacillus helveticus, Lactobacillus brevis, Lactococcus lactis, Streptococcus salivarius, Streptococcus thermophilus, Bifidobacterium lactis, Bifidobacterium animalis, Bifidobacterium longum, Bifidobacterium breve, Bifidobacterium infantis, Bifidobacterium adolescentis, Bifidobacterium pseudocatenulatum or mixtures thereof, and said probiotic strain or probiotic strain mixture consumes at least 10 wt.% of oleuropein over a time period of less than 24 hours when fermented, and wherein the metabolites formed during the fermentation process comprise a molecule selected from the group consisting of: hydroxytyrosol acetate, hydroxytyrosol and elenolic acid.
An apparatus for wireless communication at a user equipment, UE, the apparatus comprising: a memory; and at least one processor coupled to the memory, the at least one processor and the memory configured to: receive a configuration from a wireless network entity for one or more neural network training parameters for wireless communication by the UE, wherein the one or more neural network training parameters comprise a subset of layers to be trained; and train the neural network based on the configuration received from the wireless network entity. a memory; and at least one processor coupled to the memory, the at least one processor and the memory configured to: receive a configuration from a wireless network entity for one or more neural network training parameters for wireless communication by the UE, wherein the one or more neural network training parameters comprise a subset of layers to be trained; and train the neural network based on the configuration received from the wireless network entity. receive a configuration from a wireless network entity for one or more neural network training parameters for wireless communication by the UE, wherein the one or more neural network training parameters comprise a subset of layers to be trained; and train the neural network based on the configuration received from the wireless network entity.
A method of changing a content screen of a portable apparatus , the method comprising: displaying content (S440); receiving bio-information comprising an electroencephalogram, EEG, of the user from a wearable apparatus while the content is displayed (S450); calculating a visual fatigue based on the bio-information of the user (S460); determining whether the visual fatigue has increased above a threshold value (S470); receiving an input to change a displayed page from the user; displaying other content comprising an ocular movement guide in response to the increase in visual fatigue and the input to change the displayed page (S480); detecting, by a camera , whether an ocular movement of the user corresponds to the ocular movement guide; and changing the displayed page if the ocular movement of the user corresponds to the ocular movement guide, or keeping the displayed page otherwise. displaying content (S440); receiving bio-information comprising an electroencephalogram, EEG, of the user from a wearable apparatus while the content is displayed (S450); calculating a visual fatigue based on the bio-information of the user (S460); determining whether the visual fatigue has increased above a threshold value (S470); receiving an input to change a displayed page from the user; displaying other content comprising an ocular movement guide in response to the increase in visual fatigue and the input to change the displayed page (S480); detecting, by a camera , whether an ocular movement of the user corresponds to the ocular movement guide; and changing the displayed page if the ocular movement of the user corresponds to the ocular movement guide, or keeping the displayed page otherwise.
A process for regulating water content and removing acid gases from a water-containing gas stream using a non-aqueous solvent (NAS) absorption liquid, wherein the NAS absorption liquid is an organic solvent system that is miscible with 0-20% (weight/weight percent) water, which comprises: (a) treating the gas stream in an absorption zone with the NAS absorption liquid under a first set of controlled conditions of temperature, pressure and flow rate to obtain an acid gas-depleted treated gas stream and an acid gas-loaded NAS absorption liquid; (b) directing the acid gas-loaded NAS absorption liquid to a regeneration zone under a second set of controlled conditions of temperature, pressure and flow rate and regenerating the loaded NAS absorption liquid to expel a portion of the acid gases and obtain a regenerated NAS absorption liquid; (c) directing the regenerated NAS absorption liquid to step a); and (d) controlling the first and second set of conditions so as to avoid the formation of a second water phase through adjusting the operating conditions of the absorber and therefore eliminating the need for separation devices to separate a water-containing phase from the NAS absorption liquid, to regulate the water content, and remove acid gases from the water-containing gas stream, wherein the water content is regulated by controlling the temperature of the NAS absorption liquid directed to step (a) such that the acid gas-depleted treated gas stream is warmer than the water-containing gas stream and the quantity of water entering the process in the water-containing gas stream balances the water content leaving the process in the acid gas-depleted treated gas stream. (a) treating the gas stream in an absorption zone with the NAS absorption liquid under a first set of controlled conditions of temperature, pressure and flow rate to obtain an acid gas-depleted treated gas stream and an acid gas-loaded NAS absorption liquid; (b) directing the acid gas-loaded NAS absorption liquid to a regeneration zone under a second set of controlled conditions of temperature, pressure and flow rate and regenerating the loaded NAS absorption liquid to expel a portion of the acid gases and obtain a regenerated NAS absorption liquid; (c) directing the regenerated NAS absorption liquid to step a); and (d) controlling the first and second set of conditions so as to avoid the formation of a second water phase through adjusting the operating conditions of the absorber and therefore eliminating the need for separation devices to separate a water-containing phase from the NAS absorption liquid, to regulate the water content, and remove acid gases from the water-containing gas stream,
A hay net holder consisting of exactly one wall part and having a first fold-out part and a second fold-out part (3.1) and a metal strut connecting the two fold-out parts (3, 3.1) to one another, whereby the two fold-out parts (3, 3.1) are each connected at one end to the wall part via a wall joint (4, 4.1) and at the other end to the metal strut and have hay net hooks for holding a hay net and the wall part and the metal strut are of the same length, characterized in, that the second fold-out part (3.1), on the one hand, can be folded into the extension of the wall part and the first fold-out part , on the other hand, can be folded into the extension of the metal strut , whereby the wall part and the metal strut are arrangeable offset with relative to one another, wherein a closure is included, whereby it is possible for the closure to fix the metal strut reversibly to the wall part , whereby the closure comprises a first closure part (11.1) and a second closure part (11.2), whereby the first closure part (11.1) is formed on the metal strut and the second closure part (11.2) is formed on the wall part , wherein the metal strut has a U-profile and the metal strut has on its inwardly directed side, the open side of the U-profile, the first closure part (11.1) which engages in the corresponding second closure part (11.2) of the wall part , and the first closure part (11.1) and the second closure part (11.2) are respectively arranged on the metal strut or the wall part in such a way that they engage in one another in when the hay net holder is closed.
Forehead shield for a ballistic protective helmet , which is adapted to move with a visor of the protective helmet when the visor is opened and closed, characterized in that the forehead shield comprises means for removably and slidably attaching the forehead shield to the protective helmet .
A signaling transmission method, wherein receiving , by a base station , an uplink reference signal sent by user equipment UE ; determining , by the base station , a quantity of antenna ports, wherein the quantity of antenna ports is a quantity of antenna ports used by the UE to send the uplink reference signal; determining , by the base station , frequency domain resource information based on the quantity of antenna ports and based on a mapping relationship between the quantity of antenna ports and the frequency domain resource information, wherein the frequency domain resource information indicates at least one of a quantity of sub-bands and a sub-band bandwidth; determining , by the base station , a precoding matrix indicator PMI of each sub-band based on the frequency domain resource information; and sending , by the base station , the PMI of the sub-band to the UE .
A steel composition comprising: Cr at between 10.0 wt% and 13.0 wt%; C at between 0.17 wt% and 0.23 wt%; Mo at between 0.80 wt% and 1.2 wt%; Si less than or equal to 0.5 wt%; Mn less than or equal to 1.0 wt%; V at between 0.25 wt% and 0.35 wt%; W at between 0.40 wt% and 0.60 wt%; and balanced by Fe of at least 80 wt%; wherein the steel composition has been processed so that it exhibits a swelling of less than 0.9 % by volume at a depth between 500-700 nm below the surface after dual-beam Fe ++ and He ++ irradiation to doses of 188 displacements per atom (dpa) with 0.2 appm He/dpa, as calculated using the Stopping Range in Matter simulation with the K-P option for damage cascades and a 40 eV displacement energy, created by irradiating the steel composition at 460°C with a defocused beam of 5 MeV Fe ++ ions and a raster-scanned beam of ~ 2 MeV He ++ ions transmitted through a thin Al foil for scattering and energy reduction to create a uniform He profile at the irradiation depth of the sample. Cr at between 10.0 wt% and 13.0 wt%; C at between 0.17 wt% and 0.23 wt%; Mo at between 0.80 wt% and 1.2 wt%; Si less than or equal to 0.5 wt%; Mn less than or equal to 1.0 wt%; V at between 0.25 wt% and 0.35 wt%; W at between 0.40 wt% and 0.60 wt%; and balanced by Fe of at least 80 wt%; wherein the steel composition has been processed so that it exhibits a swelling of less than 0.9 % by volume at a depth between 500-700 nm below the surface after dual-beam Fe ++ and He ++ irradiation to doses of 188 displacements per atom (dpa) with 0.2 appm He/dpa, as calculated using the Stopping Range in Matter simulation with the K-P option for damage cascades and a 40 eV displacement energy, created by irradiating the steel composition at 460°C with a defocused beam of 5 MeV Fe ++ ions and a raster-scanned beam of ~ 2 MeV He ++ ions transmitted through a thin Al foil for scattering and energy reduction to create a uniform He profile at the irradiation depth of the sample.
A method to check for redundancy in two or more data lines of two cores of a multicore System on Chip (SoC), the two cores operating in lockstep and including a master core and a slave core, the method comprising: receiving data on a first data line of the two cores; computing a first cyclic redundancy check (CRC) value on the data of the first data line; performing an exclusive OR (XOR) function on the first CRC value with a stored memory value; and updating the stored memory value with a result of the XOR function; wherein said receiving, computing, performing, and updating is performed on additional data lines of the two cores until a last line is processed such that an error is indicated if a final stored memory value is not zero, wherein the two or more data lines comprise cache lines including a master cache line of the master core and a slave cache line of the slave core. receiving data on a first data line of the two cores; computing a first cyclic redundancy check (CRC) value on the data of the first data line; performing an exclusive OR (XOR) function on the first CRC value with a stored memory value; and updating the stored memory value with a result of the XOR function; wherein said receiving, computing, performing, and updating is performed on additional data lines of the two cores until a last line is processed such that an error is indicated if a final stored memory value is not zero, wherein the two or more data lines comprise cache lines including a master cache line of the master core and a slave cache line of the slave core.
A method for producing an apparatus for carrying out a method for reducing a hydraulically effective porosity of a porous solid matrix by injecting at least one gas into the porous solid matrix , the gas forming a gas reservoir in the porous solid matrix , the injection being carried out via a horizontal and/or inclined drilling channel, comprising the steps of a. drilling a horizontal bore as a pilot bore , the inclination of the drilling channel relative to the horizontal being between > 0 and < 60°; b. introducing material through a drilling fluid or by delivering selected sand layers or by using a material injection chamber to form a drilling channel having a colmated drilling channel wall and to affect a gas pathway through the colmated drilling channel wall ; c. inserting a support tube having gas passages ; at the same time d. forming a homogenized region by means of a loosening and homogenizing tool to destroy and homogenize the colmated drilling channel wall of the original drilling channel; e. creating at least one axial barrier in the homogenized region at least at one end with respect to at least one environment by means of a seal ; and f. providing a means for feeding gas into the support tube . a. drilling a horizontal bore as a pilot bore , the inclination of the drilling channel relative to the horizontal being between > 0 and < 60°; b. introducing material through a drilling fluid or by delivering selected sand layers or by using a material injection chamber to form a drilling channel having a colmated drilling channel wall and to affect a gas pathway through the colmated drilling channel wall ; c. inserting a support tube having gas passages ; at the same time d. forming a homogenized region by means of a loosening and homogenizing tool to destroy and homogenize the colmated drilling channel wall of the original drilling channel; e. creating at least one axial barrier in the homogenized region at least at one end with respect to at least one environment by means of a seal ; and f. providing a means for feeding gas into the support tube .
An acrylic block copolymer (I) comprising at least two polymer blocks (A) containing methacrylic acid ester units and at least one polymer block (B) containing acrylic acid ester units, wherein the acrylic block copolymer (I) has a structure of blocks (A)-(B)-(A), a weight average molecular weight (Mw) ranging from 30,000 to 100,000, and a melt viscosity of not more than 100,000 mPa·s, the weight average molecular weight (Mw) being measured by gel permeation chromatography in terms of standard polystyrene and the melt viscosity being measured at 100°C with a Brookfield viscometer.
A method of operating a textile treatment device comprising a heatable soleplate intended to be in contact with a textile (TXT) for treating the textile and a heating system for providing thermal energy to the soleplate, the method comprising: - a first step of setting a first temperature target (TT1) for the heatable soleplate , the first temperature target (TT1) being a desired soleplate temperature to be reached by regulating the electrical power provided to the heating system, - a step of detecting movement of said textile treatment device, characterized in that : - if the step of detecting movement did not detect any movement of said textile treatment device during more than a given first time duration (D1), a step of actively decreasing the temperature of the heatable soleplate by injecting an amount of water in a steam chamber being in thermal contact with said heatable soleplate , up to reaching a first given temperature (T1) having a value below said first temperature target (TT1). - a first step of setting a first temperature target (TT1) for the heatable soleplate , the first temperature target (TT1) being a desired soleplate temperature to be reached by regulating the electrical power provided to the heating system, - a step of detecting movement of said textile treatment device, characterized in that : - if the step of detecting movement did not detect any movement of said textile treatment device during more than a given first time duration (D1), a step of actively decreasing the temperature of the heatable soleplate by injecting an amount of water in a steam chamber being in thermal contact with said heatable soleplate , up to reaching a first given temperature (T1) having a value below said first temperature target (TT1).
An electrical connector for use underwater or in a wet or severe environment, the connector comprising first and second electrical connector parts , wherein the second electrical connector part is arranged to be inter-engaged with the first electrical connector part to establish an electrical connection; wherein the first electrical connector part comprises a pin , projecting axially forwardly from a support , the pin comprising a shoulder disposed in the support to prevent forward movement of the pin relative to the support; an axially extending electrically conductive portion , an axially extending sleeve comprising fibre reinforced plastic around said conductive portion , and a protective layer around the sleeve , wherein the protective layer does not have fibre reinforcement; wherein the protective layer extends from the shoulder of the pin over a tapered end of the sleeve to prevent exposure of the sleeve to ambient conditions when the end of the pin forward of the shoulder is exposed to ambient conditions.
A vacuum cleaner comprising a vacuum cleaner main body , the vacuum cleaner configured to operate by using a secondary battery disposed in the vacuum cleaner main body , as a power source, the vacuum cleaner comprising: an air path element including: a hose body ; a connection part connecting one end side of the hose body to the vacuum cleaner main body ; a hand operation part disposed on the other end side of the hose body ; a wiring disposed in the hose body from the connection part to at least the hand operation part ; and indication means disposed on the hand operation part so as to perform indication in a plurality of types of indication modes; and indication control means configured to control the indication means to perform indication in different indication modes according to previously-set conditions with respect to the vacuum cleaner , characterized in that , the indication control means sets priorities to the types of information to be indicated by the one indication means , and even when an other condition is satisfied, when a remaining amount of the secondary battery is lower than a predetermined level, the indication control means controls the indication means by giving priority to one condition of the remaining amount of the secondary battery being lower than the predetermined level. an air path element including: a hose body ; a connection part connecting one end side of the hose body to the vacuum cleaner main body ; a hand operation part disposed on the other end side of the hose body ; a wiring disposed in the hose body from the connection part to at least the hand operation part ; and indication means disposed on the hand operation part so as to perform indication in a plurality of types of indication modes; and a hose body ; a connection part connecting one end side of the hose body to the vacuum cleaner main body ; a hand operation part disposed on the other end side of the hose body ; a wiring disposed in the hose body from the connection part to at least the hand operation part ; and indication means disposed on the hand operation part so as to perform indication in a plurality of types of indication modes; and indication control means configured to control the indication means to perform indication in different indication modes according to previously-set conditions with respect to the vacuum cleaner , characterized in that , the indication control means sets priorities to the types of information to be indicated by the one indication means , and even when an other condition is satisfied, when a remaining amount of the secondary battery is lower than a predetermined level, the indication control means controls the indication means by giving priority to one condition of the remaining amount of the secondary battery being lower than the predetermined level.