mhurhangee/patent-ind-claim-en huggingface dataset:
Operating element for a household appliance , which is a capacitive touch key, which has a housing which is embodied at least in areas from an electrically conductive plastic, wherein the housing is embodied as a 2K plastic housing or as a 1K plastic housing so that the housing is embodied as an injection-moulded part and is injection moulded at most from two different plastics, and wherein the housing has an operating housing region for operation with a finger, and a display housing region for visually displaying light information, wherein the operating housing region and the display housing region are produced in one piece, characterised in that the operating housing region and the display housing region are embodied adjacent to one another when viewed in the horizontal direction and are in each case designed as cover-type components and are embodied adjoining one another directly, wherein a housing wall is an integral part of the operating housing region and the display housing region and the housing regions are spatially separated from one another by means of this housing wall , wherein in each case volumes enclosed by the housing regions are separated from one another, wherein the display housing region , viewed in the vertical direction, is lower than the operating housing region and is embodied smaller in the horizontal extension than the operating housing region , and wherein a through hole is embodied in a cover wall of the display housing region , through which through hole light from at least one light source can pass.
Rotorcraft including an aerodynamic device arranged below a rotor contributing at least to the lift of said rotorcraft in air, said rotor turning around an axis of rotation (OZ), said aerodynamic device including a fairing having at least one air intake for allowing a flow of cool air between a zone situated outside said rotorcraft to another zone situated inside said rotorcraft , said at least one air intake being delimited by an outer peripheral portion of said fairing , characterised in that , at the mouth of said at least one air intake of said fairing , said aerodynamic device includes a perforated plate provided with at least one perforation , said at least one perforation being able to accept the passage of said flow of cool air, said perforated plate including at least one main portion configured to conform to an outer shape of said outer peripheral portion of said fairing .
A heat dissipation apparatus, comprising: a connection assembly , having a first connection port and a second connection port; a heat dissipation assembly ; and a control unit , connected to the connection assembly and the heat dissipation assembly , wherein the control unit is configured to obtain information sent by an electronic device and a charging device through the connection assembly in response to the first connection port being connected to the charging device and the second connection port being connected to the electronic device ; and the control unit is configured to control a heat dissipation process of the heat dissipation assembly based on the information sent by the electronic device and the charging device . a connection assembly , having a first connection port and a second connection port; a heat dissipation assembly ; and a control unit , connected to the connection assembly and the heat dissipation assembly , wherein the control unit is configured to obtain information sent by an electronic device and a charging device through the connection assembly in response to the first connection port being connected to the charging device and the second connection port being connected to the electronic device ; and the control unit is configured to control a heat dissipation process of the heat dissipation assembly based on the information sent by the electronic device and the charging device .
Dual-mass flywheel having an input part which has a primary flywheel mass , and an output part which is mounted such that it can be rotated with respect to the said input part to a limited extent counter to the action of at least one energy store , in particular a bow spring , which output part has a secondary flywheel mass , the at least one energy store being engaged around by the input part with the configuration of a channel which extends radially in the direction of the energy store , and a flange of the output part reaching through the channel as far as one end of the energy store , and a sealing diaphragm being provided in the said channel between the flange and a part of the input part , which part faces the secondary flywheel mass , which sealing diaphragm encapsulates the energy store sealingly, characterized in that the sealing diaphragm is connected in an integrally joined manner to that part of the input part which faces the secondary flywheel mass , and is supported directly on the flange or on a friction ring which is fastened to the flange .
A hearing device (HD), e.g. a hearing aid, configured to be located at or in an ear, or to be fully or partially implanted in the head at an ear, of a user, the hearing device comprising • an input unit providing a multitude of electric input signals (X 1 (k), X 2 (k)) representing sound in an environment of the user; • an output unit for providing stimuli perceivable to the user as sound based on said electric input signals (X 1 (k), X 2 (k)) or a processed version thereof; • an adaptive beamformer filtering unit connected to said input unit and to said output unit, and configured to provide a spatially filtered signal based on said multitude of electric input signals (X 1 (k), X 2 (k)) and also configured to provide an adaptively updated adaptation factor β(k), where k is a frequency index; and • an own voice detector configured to provide an estimate of whether or not, or with what probability, a given input sound originates from the voice of the user, and wherein said estimate, termed the own voice indicator, is classified by a neural network, and • wherein the input to the neural network is given by a set of sampled values of said adaptively updated adaptation factor β(k) labelled by own voice/no own voice. • an input unit providing a multitude of electric input signals (X 1 (k), X 2 (k)) representing sound in an environment of the user; • an output unit for providing stimuli perceivable to the user as sound based on said electric input signals (X 1 (k), X 2 (k)) or a processed version thereof; • an adaptive beamformer filtering unit connected to said input unit and to said output unit, and configured to provide a spatially filtered signal based on said multitude of electric input signals (X 1 (k), X 2 (k)) and also configured to provide an adaptively updated adaptation factor β(k), where k is a frequency index; and • an own voice detector configured to provide an estimate of whether or not, or with what probability, a given input sound originates from the voice of the user, and wherein said estimate, termed the own voice indicator, is classified by a neural network, and • wherein the input to the neural network is given by a set of sampled values of said adaptively updated adaptation factor β(k) labelled by own voice/no own voice.
A vestibular system stimulation array , comprising: at least one electrode array configured to be implantable in a semicircular canal of the vestibular system , wherein the at least one electrode array is configured to apply electrical stimulation to the vestibular system ; and at least one lead respectively connected to the least one electrode array , wherein the at least one lead has a first diameter (E) lying on a plane normal to a longitudinal axis of the lead that is greater than a second diameter (F) of the respective at least one electrode array lying on a plane normal to a longitudinal axis of the respective at least one electrode array , such that residual vestibular function of the semicircular canal in which the at least one electrode array is implanted is retained. at least one electrode array configured to be implantable in a semicircular canal of the vestibular system , wherein the at least one electrode array is configured to apply electrical stimulation to the vestibular system ; and at least one lead respectively connected to the least one electrode array , wherein the at least one lead has a first diameter (E) lying on a plane normal to a longitudinal axis of the lead that is greater than a second diameter (F) of the respective at least one electrode array lying on a plane normal to a longitudinal axis of the respective at least one electrode array , such that residual vestibular function of the semicircular canal in which the at least one electrode array is implanted is retained.
A microfluidic detection chip for multi-channel rapid detection, comprising a chip body, a chip sampling port , a plurality of independent detection chambers , and a microfluidic channel being disposed on the chip body, the chip sampling port being communicated with the detection chambers by means of the microfluidic channel , wherein the chip body further comprises an electrode ; the detection chambers are connected to the electrode ; the microfluidic channel comprises a main flow channel and a plurality of branch microfluidic channels , a tail end of the main flow channel is divided into the plurality of branch microfluidic channels , and the plurality of branch microfluidic channels are communicated with the plurality of independent detection chambers in a one-to-one correspondence manner; and the other end of the main flow channel is communicated with the chip sampling port , wherein the chip body comprises a bottom plate layer , an intermediate layer , and an upper cover layer in sequence from bottom to top; the bottom plate layer, the intermediate layer, and the upper cover layer cooperate to define a closed microfluidic channel and the plurality of independent detection chambers and a funnel region ; the microfluidic channel and the detection chambers are located in the intermediate layer ; a liquid injection port and a plurality of exhaust holes are formed on the upper cover layer , the plurality of exhaust holes are provided on one side of the upper cover layer corresponding to the tail end of the microfluidic channel , and the liquid injection port is communicated with a front end of the microfluidic channel ; and the electrode is provided on the bottom plate layer , wherein the plurality of independent detection chambers are distributed in a fan shape, a notch is formed on one side of a lower end of the bottom plate layer ; the liquid injection port , the funnel region , and the notch are respectively formed at corresponding positions on the upper cover layer , the intermediate layer , and the bottom plate layer and have different sizes; and the chip sampling port is formed by the liquid injection port , the funnel region , and the notch and is connected to the bottom of the detection chambers by means of the microfluidic channel wherein the chip sampling port is set to a funnel shape with a large bottom plate area, a small upper cover area and a funneled intermediate layer.
Method for roughening a cylinder bore wall to be coated, comprising the following steps: - provision of a component having a cylinder bore and a cylinder bore wall running around a central longitudinal axis , - generation of at least one groove , running around the central longitudinal axis in the cylinder bore wall , and at least one associated groove web , such that the at least one groove web , in a radial direction (R), directed toward the central longitudinal axis , forms first undercuts for a coating (S) which is to be applied, and - generation of axial grooves , running transversely to the at least one groove in the cylinder bore wall , such that the at least one groove web , in a peripheral direction (Φ) about the central longitudinal axis , forms respective second undercuts for the coating (S) which is to be applied, and the at least one groove web on at least one of the axial grooves , forms at least one material projection , which extends into the at least one groove and, in the peripheral direction (Φ), forms a respective further undercut for the coating (S) which is to be applied, characterized in that, for the generation of the axial grooves , a tool having at least one deformation roller is moved along the central longitudinal axis , and the at least one deformation roller rotates about a rotational axis , running transversely to the central longitudinal axis , in such a way on the cylinder bore wall that the at least one deformation roller plastically deforms the at least one groove web for the formation of the axial grooves . - provision of a component having a cylinder bore and a cylinder bore wall running around a central longitudinal axis , - generation of at least one groove , running around the central longitudinal axis in the cylinder bore wall , and at least one associated groove web , such that the at least one groove web , in a radial direction (R), directed toward the central longitudinal axis , forms first undercuts for a coating (S) which is to be applied, and - generation of axial grooves , running transversely to the at least one groove in the cylinder bore wall , such that the at least one groove web , in a peripheral direction (Φ) about the central longitudinal axis , forms respective second undercuts for the coating (S) which is to be applied, and the at least one groove web on at least one of the axial grooves , forms at least one material projection , which extends into the at least one groove and, in the peripheral direction (Φ), forms a respective further undercut for the coating (S) which is to be applied,
A group III nitride semiconductor light-emitting device , comprising: a substrate ; a GaN layer disposed on the substrate and composed of Al x Ga 1-x N (0 ≤ x < 1) an InGaN layer disposed on the GaN layer and composed of InGaN; an AIGaN layer disposed on the InGaN layer and composed of Al y Ga 1-y N (0 ≤ y < 1) comprising a dopant; and a functional layer being a light-emitting layer and disposed on the AIGaN layer; wherein the substrate is a RAMgOa substrate made of a single crystal body represented by general formula RAMgO 4 , wherein R represents one or more trivalent elements selected from the group consisting of Sc, In, Y, and lanthanoids, and A represents one or more trivalent elements selected from the group consisting of Fe (III), Ga, and Al; wherein a concentration of Mg in the GaN layer is higher than a concentration of Mg in the AIGaN layer, wherein a concentration of the dopant in the AIGaN layer is higher than the concentration of Mg in the AIGaN layer, wherein the GaN layer comprises a dopant, and includes a first region that is located closer to the InGaN layer and has a higher concentration of the dopant than the concentration of Mg, and a second region that is located opposite to the first region and has a lower concentration of the dopant than the concentration of Mg, and wherein the second region of the GaN layer has a thickness of 0.5 μm or more and 2 μm or less. a substrate ; a GaN layer disposed on the substrate and composed of Al x Ga 1-x N (0 ≤ x < 1) an InGaN layer disposed on the GaN layer and composed of InGaN; an AIGaN layer disposed on the InGaN layer and composed of Al y Ga 1-y N (0 ≤ y < 1) comprising a dopant; and a functional layer being a light-emitting layer and disposed on the AIGaN layer; wherein the substrate is a RAMgOa substrate made of a single crystal body represented by general formula RAMgO 4 , wherein R represents one or more trivalent elements selected from the group consisting of Sc, In, Y, and lanthanoids, and A represents one or more trivalent elements selected from the group consisting of Fe (III), Ga, and Al; wherein a concentration of Mg in the GaN layer is higher than a concentration of Mg in the AIGaN layer, wherein a concentration of the dopant in the AIGaN layer is higher than the concentration of Mg in the AIGaN layer, wherein the GaN layer comprises a dopant, and includes a first region that is located closer to the InGaN layer and has a higher concentration of the dopant than the concentration of Mg, and a second region that is located opposite to the first region and has a lower concentration of the dopant than the concentration of Mg, and a first region that is located closer to the InGaN layer and has a higher concentration of the dopant than the concentration of Mg, and a second region that is located opposite to the first region and has a lower concentration of the dopant than the concentration of Mg, and wherein the second region of the GaN layer has a thickness of 0.5 μm or more and 2 μm or less.
A sheet of biological tissue, the sheet including on at least one side tapered edge portion (c) thinning down in the thickness direction , towards an end thereof, wherein the angle of the tapered edge (a) is in a range of 10° to 70°, and wherein the thickness of the sheet is 500 micrometers or less. wherein the angle of the tapered edge (a) is in a range of 10° to 70°, and wherein the thickness of the sheet is 500 micrometers or less.
Sealing ring comprising a support body and at least one sealing body , wherein the support body has at least one housing element formed from plastic, wherein the housing element has a radial flange and an axial flange and wherein the housing element receives the sealing body , wherein the support body is of multi-part design and has an inner body formed from plastic, wherein the housing element receives the inner body and the sealing body , which is arranged between the radial flange and the inner body , wherein the inner body is held in a form-fitting manner on the housing element , wherein the axial flange of the housing element is provided with form-fitting elements on the side facing towards the inner body , characterized in that sealing elements are arranged between the radial flange of the housing element and the sealing body and between the sealing body and the inner body .
A method for obtaining Retinal Pigment Epithelium (RPE) cells, comprising: a. providing a culture of human pluripotent stem cells adherent on a first substrate comprising a first laminin; b. exposing the stem cells to a differentiation medium for a first time period of 15 days to 50 days to obtain a first population of adherent cells comprising RPE cells and/or progenitors thereof; c. at the end of the first time period, dissociating the first population from the first substrate; d. replating the dissociated first population of cells on a second substrate comprising a second laminin; and e. culturing the replated first population of cells on the second substrate for second time period to obtain an expanded and matured second population of cells comprising the RPE cells; wherein the first and second laminins are independently selected from LN-521, LN-511, LN-111 and LN-121, and are an intact protein or protein fragment having essentially the same activity as an intact protein; wherein the method comprises quantitating the fraction of cells expressing the marker CD140b; and wherein the dissociation step (c) is initiated when at least 30% of the cells are positive for the marker and/or wherein the culturing step (e) is continued until at least 80% of the cells are positive for the marker. a. providing a culture of human pluripotent stem cells adherent on a first substrate comprising a first laminin; b. exposing the stem cells to a differentiation medium for a first time period of 15 days to 50 days to obtain a first population of adherent cells comprising RPE cells and/or progenitors thereof; c. at the end of the first time period, dissociating the first population from the first substrate; d. replating the dissociated first population of cells on a second substrate comprising a second laminin; and e. culturing the replated first population of cells on the second substrate for second time period to obtain an expanded and matured second population of cells comprising the RPE cells; wherein the first and second laminins are independently selected from LN-521, LN-511, LN-111 and LN-121, and are an intact protein or protein fragment having essentially the same activity as an intact protein; wherein the method comprises quantitating the fraction of cells expressing the marker CD140b; and wherein the dissociation step (c) is initiated when at least 30% of the cells are positive for the marker and/or wherein the culturing step (e) is continued until at least 80% of the cells are positive for the marker.
An oral composition for use in a method of inhibiting or reducing the occurrence and/or duration of a rhinovirus infection, the method comprising delivering an oral composition into an oral cavity of a subject, the oral composition comprising: a first component comprising about 0.1% to about 3.0% (w/v) of at least one E h -raising compound, wherein the E h -raising compound is an oxyhalogen compound; and a second component comprising about 0.02% to about 0.2% (w/v) of a zinc compound. a first component comprising about 0.1% to about 3.0% (w/v) of at least one E h -raising compound, wherein the E h -raising compound is an oxyhalogen compound; and a second component comprising about 0.02% to about 0.2% (w/v) of a zinc compound.
A process for the preparation of the compounds of formula II comprising the following step: (i) reacting a substituted phenoxy phenyl compound of the formula III with a Grignard reagent R'-Mg-Hal 3 (IV) and a ketone R 1 C(=O)CH 2 Hal 1 (V) in the presence of a lanthanoid salt; wherein the variables R 1 , R 4 , Hal 1 , Hal 2 , Hal3 and R' are defined as follows: R 1 is selected from C 1 -C 6 -alkyl and C 3 -C 8 -cycloalkyl; R 4 is halogen; and Hal 1 , Hal 2 , Hal3 are independently from one another halogen; and R' is C 1 -C 4 -alkyl or C 3 -C 6 -cycloalkyl. (i) reacting a substituted phenoxy phenyl compound of the formula III with a Grignard reagent R'-Mg-Hal 3 (IV) and a ketone R 1 C(=O)CH 2 Hal 1 (V) in the presence of a lanthanoid salt; wherein the variables R 1 , R 4 , Hal 1 , Hal 2 , Hal3 and R' are defined as follows: R 1 is selected from C 1 -C 6 -alkyl and C 3 -C 8 -cycloalkyl; R 4 is halogen; and Hal 1 , Hal 2 , Hal3 are independently from one another halogen; and R' is C 1 -C 4 -alkyl or C 3 -C 6 -cycloalkyl. R 1 is selected from C 1 -C 6 -alkyl and C 3 -C 8 -cycloalkyl; R 4 is halogen; and Hal 1 , Hal 2 , Hal3 are independently from one another halogen; and R' is C 1 -C 4 -alkyl or C 3 -C 6 -cycloalkyl.
Heat sink for an electronic board of a motor vehicle motor-driven fan unit, comprising a surface intended to exchange heat with an air flow (F) set in motion by the motor-driven fan unit, known as exchange surface , said exchange surface comprising a planar portion arranged such that, in a position in which it is installed in the motor-driven fan unit, the air flow (F) set in motion by the motor-driven fan unit flows substantially parallel to said planar portion , the exchange surface also comprising a collection of blind cavities starting flush with said planar portion , characterized in that each cavity comprises a part in the shape of a truncated hexagonal-base pyramid and/or a part of constant cross section.
A compound of Formula (I), a metabolite of the compound of Formula (I), an ester of the compound of Formula (I), or a metabolite of the ester of the compound of Formula (I): or a pharmaceutically acceptable salt of each of the foregoing, wherein m is an integer from 2 to 5 inclusive, and n is an integer from 3 to 8 inclusive, X 1 and X 2 each independently represent sulfur, oxygen, a sulfinyl group or a sulfonyl group, provided that X 1 and X 2 are not simultaneously oxygen, for use in the treatment of a patient diagnosed with advanced non-alcoholic steatohepatitis (NASH), a progression of NASH characterized by hepatic fibrosis, wherein a metabolite is a compound where the -COCH 3 group that is attached to the phenyl containing the -O-(CH 2 ) n CO 2 H moiety is metabolized to a 1-hydroxyethyl group.