mhurhangee/patent-ind-claim-en huggingface dataset:
Control device for controlling a plurality of sets of LEDs for a motor vehicle, the plurality of sets of LEDs comprising at least a first set of LEDs that is associated with at least a first lighting and/or signalling function and a second set of LEDs that is associated with at least a second and a third lighting and/or signalling function, the control device comprising: - an electrical power source able to be connected in parallel to the first set of LEDs and to the second set of LEDs and to deliver at least two different electrical power levels suitable respectively for the first lighting and/or signalling function and for the second lighting and/or signalling function; - a switching module able to be connected in series with the first set of LEDs and to switch between an open, first position in which only the second set of LEDs is supplied with electrical power, and a closed, second position in which the first set of LEDs and the second set of LEDs are supplied with electrical power simultaneously; and - a module for regulating electrical current able to be connected in series with the second set of LEDs and to switch between a regulating position enabling adjustment of a third electrical power level suitable for a third lighting and/or signalling function and a short-circuit position, characterized in that the plurality of sets of LEDs furthermore comprise a third set of LEDs able to be connected in series to the first set of LEDs in order to form a fourth set of LEDs associated with a fourth lighting and/or signalling function, and in that the device furthermore comprises an electronic switch able to be connected in parallel to the third set of LEDs and able to switch into a closed position enabling control of the first lighting and/or signalling function and into an open position enabling control of the fourth lighting and/or signalling function. - an electrical power source able to be connected in parallel to the first set of LEDs and to the second set of LEDs and to deliver at least two different electrical power levels suitable respectively for the first lighting and/or signalling function and for the second lighting and/or signalling function; - a switching module able to be connected in series with the first set of LEDs and to switch between an open, first position in which only the second set of LEDs is supplied with electrical power, and a closed, second position in which the first set of LEDs and the second set of LEDs are supplied with electrical power simultaneously; and - a module for regulating electrical current able to be connected in series with the second set of LEDs and to switch between a regulating position enabling adjustment of a third electrical power level suitable for a third lighting and/or signalling function and a short-circuit position,
A high strength hot-rolled steel sheet having excellent formability, comprising: by weight%, 0.1-0.15% of C, 2.0-3.0% of Si, 0.8-1.5% of Mn, 0.001-0.05% of P, 0.001-0.01% of S, 0.01-0.1% of AI, 0.7-1.7% of Cr, 0.0001-0.2% of Mo, 0.02-0.1% of Ti, 0.01-0.03% of Nb, 0.001-0.005% of B, 0.1-0.3% of V, 0.001-0.01% of N, and a balance of Fe and inevitable impurities, wherein [relational expression 1] and [relational expression 2] are satisfied, wherein tensile strength (TS) is 1180 MPa or more, a product (TS×EI) of tensile strength and elongation is 20,000 MPa% or more, and a product (TS×HER) of tensile strength and hole expandability is 30,000 MPa% or more, and wherein a microstructure of the hot-rolled steel sheet includes, by an area fraction, 5-15% of ferrite, 5-20% of retained austenite, and 10% or less of inevitable structure, in addition to a bainite matrix structure, 20 ≤ H γ ≤ 50 H γ = 194.5 − 428 C + 11 Si + 45 Mn + 35 Cr − 10 Mo − 107 Ti − 56 Nb − 70 V where [elemental symbol] indicates a content in weight% of each element, 0.7 ≤ a p ≤ 3.5 a p = Mo + Ti + Nb + V × C − 1 where [elemental symbol] indicates a content in weight% of each element, wherein the mechanical properties and the microstructure is measured as defined in the description. by weight%, 0.1-0.15% of C, 2.0-3.0% of Si, 0.8-1.5% of Mn, 0.001-0.05% of P, 0.001-0.01% of S, 0.01-0.1% of AI, 0.7-1.7% of Cr, 0.0001-0.2% of Mo, 0.02-0.1% of Ti, 0.01-0.03% of Nb, 0.001-0.005% of B, 0.1-0.3% of V, 0.001-0.01% of N, and a balance of Fe and inevitable impurities, wherein [relational expression 1] and [relational expression 2] are satisfied, wherein tensile strength (TS) is 1180 MPa or more, a product (TS×EI) of tensile strength and elongation is 20,000 MPa% or more, and a product (TS×HER) of tensile strength and hole expandability is 30,000 MPa% or more, and wherein a microstructure of the hot-rolled steel sheet includes, by an area fraction, 5-15% of ferrite, 5-20% of retained austenite, and 10% or less of inevitable structure, in addition to a bainite matrix structure, 20 ≤ H γ ≤ 50 H γ = 194.5 − 428 C + 11 Si + 45 Mn + 35 Cr − 10 Mo − 107 Ti − 56 Nb − 70 V where [elemental symbol] indicates a content in weight% of each element, 0.7 ≤ a p ≤ 3.5 a p = Mo + Ti + Nb + V × C − 1 where [elemental symbol] indicates a content in weight% of each element, wherein the mechanical properties and the microstructure is measured as defined in the description.
A wake-up method for a battery management system of a power battery pack , wherein the wake-up method is used in a wake-up system for the battery management system, and the wake-up system comprises the power battery pack , a low-voltage input port , a conversion unit , a high-voltage control module , a high-voltage transmission module , a synchronous rectifying module and a low-voltage controller , wherein the wake-up method for the battery management system is characterized by comprising: receiving, by the low-voltage input port , a low-voltage power signal for waking up the battery management system; converting (S210), by the conversion unit , the low-voltage power signal into a high-voltage wake-up signal, and receiving, by the high-voltage control module , a working voltage provided by the power battery pack under control of the high-voltage wake-up signal; controlling (S220), by the high-voltage control module , the high-voltage transmission module to be turned on, providing the working voltage to the synchronous rectifying module by the turned-on high-voltage transmission module , and converting high-voltage electric energy provided by the power battery pack into low-voltage electric energy; and transmitting (S230), under control of the synchronous rectifying module , the low-voltage electric energy to the low-voltage controller , and waking up the battery management system by the low-voltage controller . receiving, by the low-voltage input port , a low-voltage power signal for waking up the battery management system; converting (S210), by the conversion unit , the low-voltage power signal into a high-voltage wake-up signal, and receiving, by the high-voltage control module , a working voltage provided by the power battery pack under control of the high-voltage wake-up signal; controlling (S220), by the high-voltage control module , the high-voltage transmission module to be turned on, providing the working voltage to the synchronous rectifying module by the turned-on high-voltage transmission module , and converting high-voltage electric energy provided by the power battery pack into low-voltage electric energy; and transmitting (S230), under control of the synchronous rectifying module , the low-voltage electric energy to the low-voltage controller , and waking up the battery management system by the low-voltage controller .
Method for the fabrication of resistant elements for use in construction, where the resistant element is one selected from among wall , partition , pillar , or roof , the method comprising the steps of: - printing, using a 3D printer, the mould or formwork of a resistant element, leaving a space to be filled with a resistant material such as cement or concrete, and also providing in the mould or formwork hollow spaces to accommodate elements of service facilities such as water, electricity, gas, and home automation; - filling the moulding space with said resistant material; and - keeping the 3D printed mould in place, without removing it, which acts as a finishing material of that resistant element , whether as finishing for the wall facing, trim, or plastering of same. - printing, using a 3D printer, the mould or formwork of a resistant element, leaving a space to be filled with a resistant material such as cement or concrete, and also providing in the mould or formwork hollow spaces to accommodate elements of service facilities such as water, electricity, gas, and home automation; - filling the moulding space with said resistant material; and - keeping the 3D printed mould in place, without removing it, which acts as a finishing material of that resistant element , whether as finishing for the wall facing, trim, or plastering of same.
A method implemented by an access node, the method comprising: transmitting , by the access node, a trigger for an aperiodic tracking reference signal, TRS, associated with a periodic TRS; and transmitting , by the access node, the aperiodic TRS in accordance with the trigger; further comprising configuring, by the access node, a user equipment,UE, with multiple sets of aperiodic TRSs for different quasi-co-located, QCL, assumptions, wherein the association between the aperiodic TRS and the periodic TRS comprises the aperiodic TRS and the periodic TRS having a same bandwidth; wherein the association between the aperiodic TRS and the periodic TRS further comprises the aperiodic TRS and the periodic TRS having a QCL relationship; and wherein the aperiodic TRS comprises a set of 4 one-port channel state information reference, CSI-RS, resources in two consecutive slots, each of the CSI-RS resources is configured with a slot offset relative to a first transmission slot, and with the 4 CSI-RS resources for the aperiodic TRS, 2 of the CSI-RS resources are configured with relative offset of zero slot and the other 2 with relative offset of one slot. transmitting , by the access node, a trigger for an aperiodic tracking reference signal, TRS, associated with a periodic TRS; and transmitting , by the access node, the aperiodic TRS in accordance with the trigger; further comprising configuring, by the access node, a user equipment,UE, with multiple sets of aperiodic TRSs for different quasi-co-located, QCL, assumptions, wherein the association between the aperiodic TRS and the periodic TRS comprises the aperiodic TRS and the periodic TRS having a same bandwidth; wherein the association between the aperiodic TRS and the periodic TRS further comprises the aperiodic TRS and the periodic TRS having a QCL relationship; and wherein the aperiodic TRS comprises a set of 4 one-port channel state information reference, CSI-RS, resources in two consecutive slots, each of the CSI-RS resources is configured with a slot offset relative to a first transmission slot, and with the 4 CSI-RS resources for the aperiodic TRS, 2 of the CSI-RS resources are configured with relative offset of zero slot and the other 2 with relative offset of one slot.
A home appliance (28a; 28b), for example a home chiller appliance, comprising a housing (30a; 30b) defining at least one storage space and at least one home appliance door (10a; 10b), which is configured for closing the storage space , the home appliance door (10a; 10b), comprising: at least one base body (12a; 12b), the base body (12a; 12b) defining a main part of the home appliance door (10a; 10b) and configured for covering the storage space completely, for this purpose the base body (12a; 12b) comprises at least one rear wall which faces the storage space and at least one front wall which faces away from the storage space , the base body (12a; 12b) comprising at least one side wall (14a; 14b) with at least one setback (16a; 16b) for defining a door handle recess (18a; 18b), the home appliance door (10a; 10b) further comprises at least one front cover element (26a; 26b) which is implemented separately from the base body (12a; 12b) and connected to the base body (12a; 12b) in an assembled state and covering the front wall of the base body (12a; 12b) characterized by the front cover element and the base body cooperating to form a door handle by directly delimiting and/or forming the door handle , wherein the door handle is covered by and/or hidden by the front cover element , at least when viewed in a direction which is at least substantially perpendicular to the main extension plane of the base body (12a; 12b).
A molten metal pump comprising an elongated tube having a base end and a top end, a shaft disposed within said tube and an impeller rotatable by said shaft , said impeller disposed proximate said base end , said base end including an inlet and said top end including an outlet , characterised in that said elongated tube is comprised of a reinforced fiber material, RFM, and in that said pump further includes a bearing ring comprised of reinforced fiber material, RFM, and disposed in the inlet .
Device for providing clean air in a beverage filling plant, comprising an inflow duct with at least one filter for pretreating the air sucked in via a supply air inlet , wherein a first outflow duct with at least one filter for treating the air pretreated in the inflow duct adjoins the inflow duct for feeding into a filling clean room of the beverage filling plant, whereby clean air can be provided via the first outflow duct, characterised in that a second outflow duct for conditioning the air pre-conditioned in the inflow duct adjoins the inflow duct for feeding into a blowing clean room for blow-moulding plastic containers, wherein a dehumidification device for dehumidifying the pre-conditioned air is arranged in the second outflow duct , whereby dried clean air can be provided via the second outflow duct.
A method for evaluating responsivity of a subject to a carbohydrate antigen or its immunogenic fragment, comprising: (a) obtaining a peripheral blood mononuclear cell from the subject; (b) exposing the cell ex-vivo with the carbohydrate antigen or its immunogenic fragment in an Enzyme-Linked ImmunoSpot assay performed by using carbohydrate antigen-coated plate; and (c) determining a biological activity according to the assay to evaluate the responsivity, wherein the carbohydrate antigen or its immunogenic fragment is a Globo series antigen, and wherein the carbohydrate antigen-coated plate is a plate without PVDF. (a) obtaining a peripheral blood mononuclear cell from the subject; (b) exposing the cell ex-vivo with the carbohydrate antigen or its immunogenic fragment in an Enzyme-Linked ImmunoSpot assay performed by using carbohydrate antigen-coated plate; and (c) determining a biological activity according to the assay to evaluate the responsivity,
A method for performing wireless communication by a first device , the method comprising: allocating (S2510) at least one resource block, RB, from a set of a plurality of RBs for physical sidelink feedback channel, PSFCH, in a PSFCH slot, to a physical sidelink shared channel, PSSCH, resource, wherein a period of the PSFCH slot is n, wherein a number of PSSCH slots related to the PSFCH slot is i, wherein a slot index of the PSSCH resource is one of 0 to i - 1, and wherein a subchannel index of the PSSCH resource is one of 0 to j - 1; performing (S2520), from a second device, PSSCH reception based on the PSSCH resource related to the PSFCH slot; and transmitting (S2530), to the second device, hybrid automatic repeat request acknowledgment, HARQ-ACK, information based on the at least one RB allocated to the PSSCH resource, in response to the PSSCH reception, wherein, based on the number of PSSCH slots related to the PSFCH slot which is less than the period of the PSFCH slot, one or more RBs related to one or more resources with a slot index i to n - 1 from the set of the plurality of RBs for the PSFCH are not allocated to PSFCH transmission or PSFCH reception, wherein n, i and j are positive integers, wherein, based on the number of PSSCH slots related to the PSFCH slot which is less than the period of the PSFCH slot, at least one RB related to at least one PSSCH resource with a subchannel index m is not contiguous with at least one RB related to at least one PSSCH resource with a subchannel index m + 1, and wherein m is a positive integer greater than or equal to zero and less than or equal to j - 2. allocating (S2510) at least one resource block, RB, from a set of a plurality of RBs for physical sidelink feedback channel, PSFCH, in a PSFCH slot, to a physical sidelink shared channel, PSSCH, resource, wherein a period of the PSFCH slot is n, wherein a number of PSSCH slots related to the PSFCH slot is i, wherein a slot index of the PSSCH resource is one of 0 to i - 1, and wherein a subchannel index of the PSSCH resource is one of 0 to j - 1; performing (S2520), from a second device, PSSCH reception based on the PSSCH resource related to the PSFCH slot; and transmitting (S2530), to the second device, hybrid automatic repeat request acknowledgment, HARQ-ACK, information based on the at least one RB allocated to the PSSCH resource, in response to the PSSCH reception, wherein, based on the number of PSSCH slots related to the PSFCH slot which is less than the period of the PSFCH slot, one or more RBs related to one or more resources with a slot index i to n - 1 from the set of the plurality of RBs for the PSFCH are not allocated to PSFCH transmission or PSFCH reception, wherein n, i and j are positive integers, wherein, based on the number of PSSCH slots related to the PSFCH slot which is less than the period of the PSFCH slot, at least one RB related to at least one PSSCH resource with a subchannel index m is not contiguous with at least one RB related to at least one PSSCH resource with a subchannel index m + 1, and wherein m is a positive integer greater than or equal to zero and less than or equal to j - 2.
A method of forging dissimilar materials, the method comprising: preparing a press comprising upper and lower molds , each of which has a punching part , a cutting/pressing part , a pressing part , and an extraction part that are sequentially provided from one side to an opposite side thereof, and repeatedly elevating the upper mold ; continuously forming material passing/fixing parts in a tray plate through the punching part by supplying a tray plate by one pitch from one side to an opposite side towards an upper side of the lower mold whenever the upper mold is lifted; the method being characterized by introducing material plates from a front side to upper sides of the material passing/fixing parts whenever the upper mold is lifted, repeatedly cutting the material plates through the cutting/pressing part , continuously introducing the cut materials to upper sides of the material passing/fixing parts , pressing the introduced material , and fixing the materials to the material passing/fixing parts ; pressing the materials that are moved while being fixed to the tray plate , through the pressing part ; and separating the materials that have been formed while being fixed to the tray plate , and extracting the separated materials to a lower side. preparing a press comprising upper and lower molds , each of which has a punching part , a cutting/pressing part , a pressing part , and an extraction part that are sequentially provided from one side to an opposite side thereof, and repeatedly elevating the upper mold ; continuously forming material passing/fixing parts in a tray plate through the punching part by supplying a tray plate by one pitch from one side to an opposite side towards an upper side of the lower mold whenever the upper mold is lifted; the method being characterized by introducing material plates from a front side to upper sides of the material passing/fixing parts whenever the upper mold is lifted, repeatedly cutting the material plates through the cutting/pressing part , continuously introducing the cut materials to upper sides of the material passing/fixing parts , pressing the introduced material , and fixing the materials to the material passing/fixing parts ; pressing the materials that are moved while being fixed to the tray plate , through the pressing part ; and separating the materials that have been formed while being fixed to the tray plate , and extracting the separated materials to a lower side.
A cushion for a respiratory mask , the cushion comprising: a face contacting portion comprising a locating region for locating a user's face relative to the respiratory mask and a sealing region for providing a seal against a user's face; a non-face contacting portion ; characterized in that the cushion further comprises a stabilizing layer ; wherein the sealing region surrounds the locating region , wherein the locating region comprises a textile material, and wherein the stabilizing layer comprises a layer of elastomeric material that supports at least a portion of the locating region . a face contacting portion comprising a locating region for locating a user's face relative to the respiratory mask and a sealing region for providing a seal against a user's face; a non-face contacting portion ; characterized in that the cushion further comprises a stabilizing layer ; wherein the sealing region surrounds the locating region , wherein the locating region comprises a textile material, and wherein the stabilizing layer comprises a layer of elastomeric material that supports at least a portion of the locating region .
An epilator comprising: an epilator head having a head housing and a skin contacting unit mounted at the head housing and arranged for being pivotable with respect to the head housing around a first axis (A1); and a handle arranged for being held by a user's hand; wherein the head housing of the epilator head is arranged to be pivotable with respect to the handle around a second axis (A2), the first axis (A1) and the second axis (A2) being perpendicular to each other and the first axis (A1) and the second axis (A2) having a distance to each other; characterized in that the epilator head is repeatedly detachable from and attachable to the handle and comprises a first coupling element of a separable Cardan joint and the handle comprises a second coupling element of the separable Cardan joint , wherein the Cardan joint defines a pivot point (P2) and the second axis (A2) extends through the pivot point (P2). an epilator head having a head housing and a skin contacting unit mounted at the head housing and arranged for being pivotable with respect to the head housing around a first axis (A1); and a handle arranged for being held by a user's hand; wherein the head housing of the epilator head is arranged to be pivotable with respect to the handle around a second axis (A2), the first axis (A1) and the second axis (A2) being perpendicular to each other and the first axis (A1) and the second axis (A2) having a distance to each other; characterized in that the epilator head is repeatedly detachable from and attachable to the handle and comprises a first coupling element of a separable Cardan joint and the handle comprises a second coupling element of the separable Cardan joint , wherein the Cardan joint defines a pivot point (P2) and the second axis (A2) extends through the pivot point (P2).