mhurhangee/patent-ind-claim-en huggingface dataset:
A complex having Formula (IA): wherein the complex comprises compound having Formula (I-n) and L-pyroglutamic acid at a mole ratio of 1:1, wherein the complex is in a crystalline form, wherein the crystalline form has an X-ray powder diffraction pattern comprising peaks at scattering angles (2θ) of 3.61° ± 0.2°, 13.35° ± 0.2°, 17.84° ± 0.2°, 18.22° ± 0.2°, 19.92° ± 0.2° and 21.43° ± 0.2°. wherein the complex comprises compound having Formula (I-n) and L-pyroglutamic acid at a mole ratio of 1:1, wherein the complex is in a crystalline form, wherein the crystalline form has an X-ray powder diffraction pattern comprising peaks at scattering angles (2θ) of 3.61° ± 0.2°, 13.35° ± 0.2°, 17.84° ± 0.2°, 18.22° ± 0.2°, 19.92° ± 0.2° and 21.43° ± 0.2°.
A vane or blade comprising: an airfoil piece defining at least a portion of an airfoil profile (AP), the airfoil piece having a radial end and a first radial slot in the radial end ; an endwall section having a platform and a second radial slot adjacent the first radial slot ; and a seal ; characterised in that : the seal is a feather seal made of a relatively thin and flexible flat sheet of metal; and, when the airfoil piece is brought into proximity to the endwall section , the first radial slot and the second radial slot align with each other and together form a radial seal slot in which the feather seal is disposed, wherein the first radial slot and the second radial slot are endless loops circumscribing an internal cavity in the vane or blade . an airfoil piece defining at least a portion of an airfoil profile (AP), the airfoil piece having a radial end and a first radial slot in the radial end ; an endwall section having a platform and a second radial slot adjacent the first radial slot ; and a seal ; characterised in that : the seal is a feather seal made of a relatively thin and flexible flat sheet of metal; and, when the airfoil piece is brought into proximity to the endwall section , the first radial slot and the second radial slot align with each other and together form a radial seal slot in which the feather seal is disposed, wherein the first radial slot and the second radial slot are endless loops circumscribing an internal cavity in the vane or blade . the seal is a feather seal made of a relatively thin and flexible flat sheet of metal; and, when the airfoil piece is brought into proximity to the endwall section , the first radial slot and the second radial slot align with each other and together form a radial seal slot in which the feather seal is disposed, wherein the first radial slot and the second radial slot are endless loops circumscribing an internal cavity in the vane or blade .
A method of applying at least one extended-adhesive electrode to a patient's skin, the method comprising the steps of: mounting at least one medical electrode assembly having an inner face adhered to the patient's skin, each medical electrode assembly having an electrode unit with a connector facing opposite the patient's skin; and adhering an adhesive extender , the adhesive extender having a unitary flexible sheet with an aperture and an adhesive face , the adhesive face having an inner portion , surrounding the aperture adherable to the medical electrode assembly , and an outer portion adherable to the patient's skin surrounding the medical electrode assembly , wherein the adhering includes adhering the inner portion of the adhesive face on each of the adhered medical electrode assembly , and adhering the outer portion of the adhesive face to the patient's skin surrounding the medical electrode assembly , the aperture exposing the electrode connector . mounting at least one medical electrode assembly having an inner face adhered to the patient's skin, each medical electrode assembly having an electrode unit with a connector facing opposite the patient's skin; and adhering an adhesive extender , the adhesive extender having a unitary flexible sheet with an aperture and an adhesive face , the adhesive face having an inner portion , surrounding the aperture adherable to the medical electrode assembly , and an outer portion adherable to the patient's skin surrounding the medical electrode assembly , wherein the adhering includes adhering the inner portion of the adhesive face on each of the adhered medical electrode assembly , and adhering the outer portion of the adhesive face to the patient's skin surrounding the medical electrode assembly , the aperture exposing the electrode connector .
Method for determining a distance between a first terminal and a further terminal , wherein the first terminal sends radio signals to the further terminal and the further terminal sends response radio signals to the first terminal , wherein the first terminal determines at least one main response signal and one signal direction (ω 2 ) of the main response signal based on the received response radio signals , wherein the further terminal determines at least one main signal and one signal direction (ω 1 ) of the main signal based on the received radio signals , wherein a distance between the terminals is determined as the raw distance based on the at least one main signal and the at least one main response signal, wherein an angle of intersection between the signal direction (ω 1 ) of the main signal and the signal direction (ω 2 ) of the main response signal is determined as an interim kink angle (β), wherein the raw distance is corrected to a measurement distance based on the kink angle (β). wherein the first terminal sends radio signals to the further terminal and the further terminal sends response radio signals to the first terminal , wherein the first terminal determines at least one main response signal and one signal direction (ω 2 ) of the main response signal based on the received response radio signals , wherein the further terminal determines at least one main signal and one signal direction (ω 1 ) of the main signal based on the received radio signals , wherein a distance between the terminals is determined as the raw distance based on the at least one main signal and the at least one main response signal, wherein an angle of intersection between the signal direction (ω 1 ) of the main signal and the signal direction (ω 2 ) of the main response signal is determined as an interim kink angle (β), wherein the raw distance is corrected to a measurement distance based on the kink angle (β).
A thermal cycle system, comprising: driving devices , one or a plurality of outdoor units , and a plurality of indoor units , which are connected by pipelines; a bypass pipeline for the plurality of indoor units, a bypass valve being disposed in the bypass pipeline; a pressure sensor that senses a pressure difference ΔP o across the or the plurality of outdoor units; and a controller that is preset with a pressure difference set value ΔP set , wherein the controller calculates a pressure offset parameter ΔP = ΔP o - ΔP set and adjusts an opening degree of the bypass valve based on the pressure offset parameter ΔP so that the pressure offset parameter ΔP approaches zero, and characterised in that the controller is preset with a first pressure offset threshold P 1 , and the controller is configured such that closed indoor units enter a bypass mode one by one when ΔP > P 1 , until ΔP≤P 1 , wherein the indoor unit comprises a heat exchanger and a fan, and the bypass mode is a mode in which a cooling medium flows through the heat exchanger of the indoor unit and the fan of the indoor unit is not operated, or wherein the bypass mode is a mode in which a valve on a direct-through flow path between a fluid inlet and a fluid outlet of the indoor unit is opened. driving devices , one or a plurality of outdoor units , and a plurality of indoor units , which are connected by pipelines; a bypass pipeline for the plurality of indoor units, a bypass valve being disposed in the bypass pipeline; a pressure sensor that senses a pressure difference ΔP o across the or the plurality of outdoor units; and a controller that is preset with a pressure difference set value ΔP set , wherein the controller calculates a pressure offset parameter ΔP = ΔP o - ΔP set and adjusts an opening degree of the bypass valve based on the pressure offset parameter ΔP so that the pressure offset parameter ΔP approaches zero, and characterised in that the controller is preset with a first pressure offset threshold P 1 , and the controller is configured such that closed indoor units enter a bypass mode one by one when ΔP > P 1 , until ΔP≤P 1 , wherein the indoor unit comprises a heat exchanger and a fan, and the bypass mode is a mode in which a cooling medium flows through the heat exchanger of the indoor unit and the fan of the indoor unit is not operated, or wherein the bypass mode is a mode in which a valve on a direct-through flow path between a fluid inlet and a fluid outlet of the indoor unit is opened. wherein the indoor unit comprises a heat exchanger and a fan, and the bypass mode is a mode in which a cooling medium flows through the heat exchanger of the indoor unit and the fan of the indoor unit is not operated, or wherein the bypass mode is a mode in which a valve on a direct-through flow path between a fluid inlet and a fluid outlet of the indoor unit is opened.
A heating conductor for an exhaust gas heater for an exhaust gas system of an internal combustion engine, the heating conductor being constructed from flat material which is elongate in a heating-conductor longitudinal direction (H L ) and has heating-conductor broad sides situated opposite one another in a heating-conductor thickness direction (H D ) and heating-conductor flat sides situated opposite one another in a heating-conductor width direction (H B ), characterized in that a plurality of formations , which follow one another in the heating-conductor longitudinal direction (H L ) or/and follow one another in the heating-conductor width direction (H B ), and are oriented substantially in the heating-conductor thickness direction (H D ) and have varying formation heights (H A ) in the heating-conductor width direction (H B ), is provided on the heating conductor .
Semiconductor structure , including a carrier layer and a semiconductor layer made of a crystalline semiconductor compound, a portion of the semiconductor layer of which forms a suspended membrane above a carrier layer , the crystalline semiconductor compound being chosen from elements of column IV of the periodic table of the elements and alloys of these elements, from alloys including elements of columns lll-V of the periodic table of the elements, and from alloys including elements from columns II-VI of the periodic table of the elements, the suspended membrane being formed: ∘ from a central segment , which is tensilely stressed in a plane parallel to the carrier layer ; and ∘ from a plurality of lateral segments , which are opposite one another with respect to the central segment , and arranged so as to keep the central segment suspended and tensilely stressed along at least two separate deformation axes, the lateral segments having an average width larger than an average width of the central segment , the average width being an average dimension, in a plane parallel to the plane of the carrier layer along an axis that is transverse to said deformation axes; characterized in that the central segment includes at least one zone of thinned thickness. ∘ from a central segment , which is tensilely stressed in a plane parallel to the carrier layer ; and ∘ from a plurality of lateral segments , which are opposite one another with respect to the central segment , and arranged so as to keep the central segment suspended and tensilely stressed along at least two separate deformation axes, the lateral segments having an average width larger than an average width of the central segment , the average width being an average dimension, in a plane parallel to the plane of the carrier layer along an axis that is transverse to said deformation axes;
A nicotine-containing pharmaceutical composition, comprising: a source of nicotine; and a mixture of a porous carrier and a non-active ingredient sorbed onto the porous carrier, the non-active ingredient being in the form of a base or a buffering agent, wherein the non-active ingredient is physically separated or segregated from the nicotine in the composition by means of intimate contact between the porous carrier and the non-active ingredient, provided by dissolving or dispersing the non-active ingredient in a liquid to give a solution or dispersion, contacting the solution or dispersion with the porous carrier, and removing the liquid to provide the non-active ingredient sorbed onto the porous carrier; and wherein the composition is in a pharmaceutically acceptable form adapted for oral or nasal delivery of the composition. a source of nicotine; and a mixture of a porous carrier and a non-active ingredient sorbed onto the porous carrier, the non-active ingredient being in the form of a base or a buffering agent, wherein the non-active ingredient is physically separated or segregated from the nicotine in the composition by means of intimate contact between the porous carrier and the non-active ingredient, provided by dissolving or dispersing the non-active ingredient in a liquid to give a solution or dispersion, contacting the solution or dispersion with the porous carrier, and removing the liquid to provide the non-active ingredient sorbed onto the porous carrier; and wherein the composition is in a pharmaceutically acceptable form adapted for oral or nasal delivery of the composition.
Method for estimating spatial coordinates and a type of a light source in an environment image , wherein the type of the light source can be a point light source or a directional light source, having the steps of: a) capturing an environment in the form of an environment image by means of a camera ; b) determining surfaces of increased brightness of the environment image , specifically a set of pixels having a brightness that exceeds a predefined threshold; c) determining spatial coordinates of the light source on the basis of the surfaces of increased brightness in accordance with a first calculation method; d) determining the type of the light source on the basis of a shadow of a vehicle on the environment image , having the substeps of: d1) assigning the shadow of the vehicle to the light source on the basis of peripheries of the shadow and the spatial coordinates of the light source ; d2) determining the type of the light source on the basis of the parallelism of the peripheries of the shadow , specifically a directional light source on the basis of parallel peripheries and a point light source on the basis of non-parallel peripheries . a) capturing an environment in the form of an environment image by means of a camera ; b) determining surfaces of increased brightness of the environment image , specifically a set of pixels having a brightness that exceeds a predefined threshold; c) determining spatial coordinates of the light source on the basis of the surfaces of increased brightness in accordance with a first calculation method; d) determining the type of the light source on the basis of a shadow of a vehicle on the environment image , having the substeps of: d1) assigning the shadow of the vehicle to the light source on the basis of peripheries of the shadow and the spatial coordinates of the light source ; d2) determining the type of the light source on the basis of the parallelism of the peripheries of the shadow , specifically a directional light source on the basis of parallel peripheries and a point light source on the basis of non-parallel peripheries . d1) assigning the shadow of the vehicle to the light source on the basis of peripheries of the shadow and the spatial coordinates of the light source ; d2) determining the type of the light source on the basis of the parallelism of the peripheries of the shadow , specifically a directional light source on the basis of parallel peripheries and a point light source on the basis of non-parallel peripheries .
A single-use bioreactor , comprising: a contacting-type conductivity sensor comprising: an electrically insulative thermoplastic body ; a plurality of conductive electrodes disposed in the thermoplastic body , wherein each electrode being constructed of thermoplastic compound and co-extruded with the thermoplastic body ; wherein the insulative thermoplastic body and a thermoplastic portion of the plurality of electrically conductive thermoplastic electrodes being formed of the same thermoplastic compound without seals or material interfaces therein, a bioreaction chamber configured to hold a specimen; wherein the contacting-type conductivity sensor is mounted on a plastic wall within the bioreaction chamber by a bond such that the electrodes of the contacting-type conductivity sensor are configured to contact the specimen , and wherein the bond liquid-tightly seals an aperture within the wall of the bioreaction chamber, and wherein the aperture allows conductors (60, 62, 64, and 66) that are coupled to electrodes to pass therethrough. a contacting-type conductivity sensor comprising: an electrically insulative thermoplastic body ; a plurality of conductive electrodes disposed in the thermoplastic body , wherein each electrode being constructed of thermoplastic compound and co-extruded with the thermoplastic body ; wherein the insulative thermoplastic body and a thermoplastic portion of the plurality of electrically conductive thermoplastic electrodes being formed of the same thermoplastic compound without seals or material interfaces therein, an electrically insulative thermoplastic body ; a plurality of conductive electrodes disposed in the thermoplastic body , wherein each electrode being constructed of thermoplastic compound and co-extruded with the thermoplastic body ; wherein the insulative thermoplastic body and a thermoplastic portion of the plurality of electrically conductive thermoplastic electrodes being formed of the same thermoplastic compound without seals or material interfaces therein, a bioreaction chamber configured to hold a specimen; wherein the contacting-type conductivity sensor is mounted on a plastic wall within the bioreaction chamber by a bond such that the electrodes of the contacting-type conductivity sensor are configured to contact the specimen , and wherein the bond liquid-tightly seals an aperture within the wall of the bioreaction chamber, and wherein the aperture allows conductors (60, 62, 64, and 66) that are coupled to electrodes to pass therethrough. wherein the contacting-type conductivity sensor is mounted on a plastic wall within the bioreaction chamber by a bond such that the electrodes of the contacting-type conductivity sensor are configured to contact the specimen , and wherein the bond liquid-tightly seals an aperture within the wall of the bioreaction chamber, and wherein the aperture allows conductors (60, 62, 64, and 66) that are coupled to electrodes to pass therethrough.
A length adjustable butt pad assembly for a firearm, the length adjustable butt pad assembly comprising: a butt plate having an elongated butt plate shaft (16; 76), wherein said butt plate shaft (16;76) comprises a plurality of axially displaced and peripherally extending locking notches and an axially extending groove , a butt plate base comprising an elongated mounting tube (18; 58) extending in a horizontal direction and receiving said butt plate shaft (16; 76), wherein said elongated mounting tube (18; 58) comprises at least one internal and radially extending locking lug configured to be received in one of said locking notches , wherein said axially displaced and peripherally extending locking notches are open to said axially extending groove , wherein butt plate shaft and mounting tube extend along a common axis X, wherein the butt plate base comprises a locking lever , a rotating body or a sliding body , said lug and groove and notches forming a locking mechanism with a secured position, wherein said locking lever , rotating body or sliding body is received in said axially extending groove thereby preventing rotation of the butt plate , said locking lug is received in a locking notch and prevents any axial displacement of butt plate and butt plate shaft and with a release position, wherein rotation around and translation along axis X of the butt plate shaft in the mounting tube is allowed. a butt plate having an elongated butt plate shaft (16; 76), wherein said butt plate shaft (16;76) comprises a plurality of axially displaced and peripherally extending locking notches and an axially extending groove , a butt plate base comprising an elongated mounting tube (18; 58) extending in a horizontal direction and receiving said butt plate shaft (16; 76), wherein said elongated mounting tube (18; 58) comprises at least one internal and radially extending locking lug configured to be received in one of said locking notches , wherein said axially displaced and peripherally extending locking notches are open to said axially extending groove , wherein butt plate shaft and mounting tube extend along a common axis X, wherein the butt plate base comprises a locking lever , a rotating body or a sliding body , said lug and groove and notches forming a locking mechanism with a secured position, wherein said locking lever , rotating body or sliding body is received in said axially extending groove thereby preventing rotation of the butt plate , said locking lug is received in a locking notch and prevents any axial displacement of butt plate and butt plate shaft and with a release position, wherein rotation around and translation along axis X of the butt plate shaft in the mounting tube is allowed.
Warning lamp device such as a signal column for visually and/or audibly indicating at least one operating state or a number of different operating states of a production machine or the like having at least one visual and/or audible warning element , wherein at least one adjusting unit for adjusting and/or adapting at least one operating parameter of the warning element such as lighting colour, colour intensity, luminous image, volume, melody, tone sequence or the like is provided, wherein the adjusting unit comprises at least one interface for receiving setting information of the operating parameter, wherein the interface of the adjusting unit is designed as a wave receiver for receiving waves as wireless setting information of the operating parameters, characterized in that the wave receiver is designed for receiving waves, designed as wireless setting information, of a mobile telecommunication device and in that means for near-field communication (NFC) are provided for wireless or contactless exchange or transmission of the setting information of the operating parameters to the wave receiver.
Hydropneumatic bladder accumulator having a pressure container , which has a bladder , an oil inlet , a gas inlet and a pressure sensor , at least one temperature sensor and evaluation units for pressure and temperature, characterized in that it is designed to measure temperatures at at least two further points with two further temperature sensors and to record both a pressure variation over time and also the temperature difference in the accumulator and to compare them with target values.