mhurhangee/patent-ind-claim-en huggingface dataset:
Procedure to optimize the impedance of a connecting element between a first component (E1) and a second component (E2) of a high-frequency apparatus, particularly a field device, wherein the first component (E1) and the second component (E2) each have at least two level states (Z1, Z2, Z1', Z2', ...), wherein the connecting element has an input impedance and an output impedance , wherein in each of its at least two level states (Z1, Z2, ...) the first component (E1) has an impedance (8B_1, 8B_2, ...), wherein in each of its at least two level states (Z1', Z2', ...) the second component (E2) has an impedance (8E_1, 8E_2, ...), wherein said procedure comprises the following steps: Determination, in each case, of a value (TA1_1, TA1_2, ...) of a difference (ΔTA1_1, ΔTA1_2, ...) for the first component (E1) between the complexly conjugated input impedance (8C*) and the respective impedance (8B_1, 8B_2, ...) of the first component (E1) in each of its at least two level states (Z1, Z2, ...), Determination, in each case, of a value (TA2_1, TA2_2, ...) of a difference (ΔTA2_1, ΔTA2_2, ...) for the second component (E2) between the complexly conjugated output impedance (8D*) and the respective impedance (8E_1, 8E_2, ...) of the second component (E2) in each of its at least two level states (Z1', Z2', ...), Minimization of a sum (GB) of the respective values (TA1_1, TA1_2, ..., TA2_1, TA2_2, ...) of the first component (E1) and the second component (E2) with regard to the input and output impedance of the connecting element . Determination, in each case, of a value (TA1_1, TA1_2, ...) of a difference (ΔTA1_1, ΔTA1_2, ...) for the first component (E1) between the complexly conjugated input impedance (8C*) and the respective impedance (8B_1, 8B_2, ...) of the first component (E1) in each of its at least two level states (Z1, Z2, ...), Determination, in each case, of a value (TA2_1, TA2_2, ...) of a difference (ΔTA2_1, ΔTA2_2, ...) for the second component (E2) between the complexly conjugated output impedance (8D*) and the respective impedance (8E_1, 8E_2, ...) of the second component (E2) in each of its at least two level states (Z1', Z2', ...), Minimization of a sum (GB) of the respective values (TA1_1, TA1_2, ..., TA2_1, TA2_2, ...) of the first component (E1) and the second component (E2) with regard to the input and output impedance of the connecting element .
A display device comprising a plurality of semiconductor light emitting devices, wherein each of the plurality of semiconductor light emitting devices comprises: an n-type semiconductor layer ; a p-type semiconductor layer overlapped with the n-type semiconductor layer ; an active layer disposed between the n-type semiconductor layer and the p-type semiconductor layer ; an n-type electrode directly disposed on the n-type semiconductor layer ; and a p-type electrode deposited on the p-type semiconductor layer , wherein the n-type electrode is extended toward an adjoining semiconductor light emitting device to be electrically connected to the adjoining semiconductor light emitting device, wherein the plurality of semiconductor light emitting devices is disposed to form a light emitting device array, and the n-type electrodes of the plurality of semiconductor light emitting devices connect to form a first electrode line extended along a column of the light emitting device array, and the p-type electrodes of the plurality of semiconductor light emitting devices connect to form a second electrode line extended in a direction crossed with the first electrode line. an n-type semiconductor layer ; a p-type semiconductor layer overlapped with the n-type semiconductor layer ; an active layer disposed between the n-type semiconductor layer and the p-type semiconductor layer ; an n-type electrode directly disposed on the n-type semiconductor layer ; and a p-type electrode deposited on the p-type semiconductor layer , wherein the n-type electrode is extended toward an adjoining semiconductor light emitting device to be electrically connected to the adjoining semiconductor light emitting device, wherein the plurality of semiconductor light emitting devices is disposed to form a light emitting device array, and the n-type electrodes of the plurality of semiconductor light emitting devices connect to form a first electrode line extended along a column of the light emitting device array, and the p-type electrodes of the plurality of semiconductor light emitting devices connect to form a second electrode line extended in a direction crossed with the first electrode line.
A method of making an aerosol container , said method comprising the steps of: providing a polymeric outer container having a closed end bottom and an open neck longitudinally opposed thereto, a valve and a product delivery device , said valve and said product delivery device being complementary to said open neck , disposing said product delivery device in said outer container and in contacting relationship with said neck , disposing said valve at least partially in said outer container and in contacting relationship with said neck and said product delivery device , spinning said valve 28 relative to said product delivery device to weld said valve to said product delivery device at a product delivery device spin weld , charging said outer container with propellant , and spinning said valve relative to said outer container to weld said valve to said outer container at an outer container spin weld , thereby sealing said propellant therein. providing a polymeric outer container having a closed end bottom and an open neck longitudinally opposed thereto, a valve and a product delivery device , said valve and said product delivery device being complementary to said open neck , disposing said product delivery device in said outer container and in contacting relationship with said neck , disposing said valve at least partially in said outer container and in contacting relationship with said neck and said product delivery device , spinning said valve 28 relative to said product delivery device to weld said valve to said product delivery device at a product delivery device spin weld , charging said outer container with propellant , and spinning said valve relative to said outer container to weld said valve to said outer container at an outer container spin weld , thereby sealing said propellant therein.
A method of making a hermetic and electrically isolating feedthrough for the passage of an electrical connection through a metal wall of an electrical device, characterized by comprising the following steps: a) obtaining a metallic substrate whose thickness corresponds to the transverse size of the wall comprising the feedthrough to be made; b) thinning down the substrate, at least in a zone of isolation of the area of the feedthrough to be made; c) shaping an islet into the substrate material, by hollowing out from the substrate material a through-trench extending transversally through the substrate thickness, right through the thinned region , said through-trench extending transversally over the whole periphery of the islet with the exception of radial bridges of material holding the islet mechanically secured to the remainder of the substrate; d) performing a controlled oxidation of the substrate material, including an oxidation of the lateral walls of the trench up to i) complete filling of the free inner volume of the trench by growth of the oxide in this free inner volume, and ii) complete oxidation of the material of the radial bridges; and e) making at least one contact arrangement for said electrical connection directly on the islet. a) obtaining a metallic substrate whose thickness corresponds to the transverse size of the wall comprising the feedthrough to be made; b) thinning down the substrate, at least in a zone of isolation of the area of the feedthrough to be made; c) shaping an islet into the substrate material, by hollowing out from the substrate material a through-trench extending transversally through the substrate thickness, right through the thinned region , said through-trench extending transversally over the whole periphery of the islet with the exception of radial bridges of material holding the islet mechanically secured to the remainder of the substrate; d) performing a controlled oxidation of the substrate material, including an oxidation of the lateral walls of the trench up to i) complete filling of the free inner volume of the trench by growth of the oxide in this free inner volume, and ii) complete oxidation of the material of the radial bridges; and e) making at least one contact arrangement for said electrical connection directly on the islet.
A path change method, applied to a radio access network, wherein the radio access network comprises a terminal, a wireless backhaul node, and a donor node; the wireless backhaul node is configured to provide a wireless backhaul service for a node wirelessly accessing the wireless backhaul node; the terminal communicates with the donor node via the wireless backhaul node; and the path change method comprises: establishing , by a first node, a first path and a second path between the first node and a second node, wherein both the first node and the second node are nodes in the radio access network, and the first node is the wireless backhaul node, the donor node, or a distributed unit of the donor node; sending , by the first node, a data packet to the second node through the first path; and when the first node determines that a path change condition is met, changing , by the first node, from the first path to the second path to send the data packet to the second node, wherein the path change condition comprises a radio link failure, RLF, occurring on any one or more links on the first path the method being characterised in that the data packet comprises a payload and a protocol layer header, wherein the protocol layer header comprises an identifier of a destination node and a path label, the identifier of the destination node identifies the destination node of the data packet, and the path label identifies a transmission path of the data packet, wherein the transmission path of the data packet is the second path after the changing. establishing , by a first node, a first path and a second path between the first node and a second node, wherein both the first node and the second node are nodes in the radio access network, and the first node is the wireless backhaul node, the donor node, or a distributed unit of the donor node; sending , by the first node, a data packet to the second node through the first path; and when the first node determines that a path change condition is met, changing , by the first node, from the first path to the second path to send the data packet to the second node, wherein the path change condition comprises a radio link failure, RLF, occurring on any one or more links on the first path the method being characterised in that the data packet comprises a payload and a protocol layer header, wherein the protocol layer header comprises an identifier of a destination node and a path label, the identifier of the destination node identifies the destination node of the data packet, and the path label identifies a transmission path of the data packet, wherein the transmission path of the data packet is the second path after the changing.
Device comprising: - a platform intended to receive a patient, - position reflectors intended to be applied to the patient body, - an illumination system suitable to illuminate said position reflectors applied to the patient body, - a personal computer, - an image acquisition system connected to said personal computer and suitable to acquire a photographic image of the patient body with said position reflectors, and - a software stored in said personal computer for acquisition and elaboration of data from said acquisition system, in order to generate image in 3D from said position reflectors on the patient body, wherein said platform comprises: - a first position reflector intended to be positioned in correspondence of the right heel of the patient arranged on the platform, - a second position reflector intended to be positioned in correspondence of the left heel of the patient arranged on the platform, and - two calibration points . - a platform intended to receive a patient, - position reflectors intended to be applied to the patient body, - an illumination system suitable to illuminate said position reflectors applied to the patient body, - a personal computer, - an image acquisition system connected to said personal computer and suitable to acquire a photographic image of the patient body with said position reflectors, and - a software stored in said personal computer for acquisition and elaboration of data from said acquisition system, in order to generate image in 3D from said position reflectors on the patient body, - a first position reflector intended to be positioned in correspondence of the right heel of the patient arranged on the platform, - a second position reflector intended to be positioned in correspondence of the left heel of the patient arranged on the platform, and - two calibration points .
A method for identifying naive CD8+ T cells in a sample derived from a human, comprising analyzing the methylation status of at least one CpG position in the human gene region for endosialin (CD248), wherein said gene region as analyzed is positioned according to SEQ ID No. 1, wherein a demethylation or lack of methylation of said gene region is indicative for a naive CD8+ T cell, when compared to a non-naive CD8+ T cell.
A construction machine comprising: a self-propelled lower traveling structure ; an upper revolving structure provided with a working mechanism and mounted rotatably on the lower traveling structure ; a blade mounted rotatably on the lower traveling structure and extending in the left-and-right direction; a mast mounted on the blade and extending in the vertical direction; and a blade position detector provided on an upper end side of the mast to detect the position of the blade , characterized in that : the construction machine further comprises: a mast position detecting device detecting the mounting position of the mast relative to the blade , and a rotation limiting device limiting the revolving range for allowing the upper revolving structure to revolve, depending on the mounting position of the mast detected by the mast position detecting device . a self-propelled lower traveling structure ; an upper revolving structure provided with a working mechanism and mounted rotatably on the lower traveling structure ; a blade mounted rotatably on the lower traveling structure and extending in the left-and-right direction; a mast mounted on the blade and extending in the vertical direction; and a blade position detector provided on an upper end side of the mast to detect the position of the blade , characterized in that : the construction machine further comprises: a mast position detecting device detecting the mounting position of the mast relative to the blade , and a rotation limiting device limiting the revolving range for allowing the upper revolving structure to revolve, depending on the mounting position of the mast detected by the mast position detecting device . a mast position detecting device detecting the mounting position of the mast relative to the blade , and a rotation limiting device limiting the revolving range for allowing the upper revolving structure to revolve, depending on the mounting position of the mast detected by the mast position detecting device .
A throw-away tip comprising a body and a blade provided to the body and having a cutting edge , the blade containing 80% by volume or more of diamond, the blade having a land surface extending along the cutting edge , and a chip breaker having a recess located opposite to the cutting edge with the land surface therebetween, the recess having a side surface having a rake face that recedes continuously as a distance thereof from the land surface increases in magnitude and that has a shape identical to that of a portion of a side surface of a shape of a body of revolution, wherein the blade has a corner and the recess has on a side surface of the recess a projection formed along a bisector of an angle of the corner characterised in that the projection has a height (H) in a range of 20% or more and 80% or less relative to a maximum depth (D) of the recess ; when the projection is seen in a cross section to which the bisector of the angle of the corner is a normal, the projection has a cross sectional shape increasing in width as the recess becomes deeper; and the cross sectional shape in a widthwise direction has a minimum value (W3) in a range of 5 μm or more and 40 μm or less.
A method of producing hydrogen chloride (HCl) or an aqueous solution thereof by using an untreated saline water (RW), the method including the steps of: a) providing a first electrolyte (E1), wherein the first electrolyte (E1) contains chloride ions (Cl - ); b) carrying out an electrodialysis, wherein the first electrolyte (E1) is subjected to a cathodic reduction from which results a catholyte (K), wherein the concentration of chloride ions (Cl - ) decreases in the first electrolyte (E1), wherein the concentration of hydroxide ions (OH - ) increases in the first electrolyte (E1), and wherein a product (P) in the form of hydrogen chloride (HCl) or an aqueous solution thereof is produced; c) processing of at least a partial quantity of the catholyte (K), from which results the first electrolyte (E1), wherein an untreated saline water (RW) is used, wherein the concentration of chloride ions (Cl - ) increases in the catholyte (K), and wherein the concentration of hydroxide ions (OH - ) decreases in the catholyte (K); and d) at least partial reuse of the catholyte (K) processed according to step (c) as the first electrolyte (E1) in step (b); wherein the electrodialysis is carried out in an electrodialysis cell , wherein the electrodialysis cell is a three-chamber electrodialysis cell and comprises three chambers, namely, a cathode space accommodating a cathode , a product space implemented in the form of an intermediate chamber, and an anode space accommodating an anode . a) providing a first electrolyte (E1), wherein the first electrolyte (E1) contains chloride ions (Cl - ); b) carrying out an electrodialysis, wherein the first electrolyte (E1) is subjected to a cathodic reduction from which results a catholyte (K), wherein the concentration of chloride ions (Cl - ) decreases in the first electrolyte (E1), wherein the concentration of hydroxide ions (OH - ) increases in the first electrolyte (E1), and wherein a product (P) in the form of hydrogen chloride (HCl) or an aqueous solution thereof is produced; c) processing of at least a partial quantity of the catholyte (K), from which results the first electrolyte (E1), wherein an untreated saline water (RW) is used, wherein the concentration of chloride ions (Cl - ) increases in the catholyte (K), and wherein the concentration of hydroxide ions (OH - ) decreases in the catholyte (K); and d) at least partial reuse of the catholyte (K) processed according to step (c) as the first electrolyte (E1) in step (b);
A work vehicle , comprising: - an openable and closable bonnet that covers an engine and is formed so as to be rockable with respect to a body frame ; - an engaged portion that is provided on the body frame side; and - a lock mechanism that is provided on the bonnet side and is switchable between a locked state in which the bonnet is locked by the lock mechanism engaging with the engaged portion and an unlocked state in which the bonnet is not locked by the lock mechanism not engaging with the engaged portion , wherein the lock mechanism comprises - a moving member that can move by being pressed by an operating tool (A); and - a lock member that engages with the engaged portion , and is disengaged from the engaged portion as the moving member moves, characterized in that the moving member comprises a guide portion that guides the operating tool (A) to press the moving member . - an openable and closable bonnet that covers an engine and is formed so as to be rockable with respect to a body frame ; - an engaged portion that is provided on the body frame side; and - a lock mechanism that is provided on the bonnet side and is switchable between a locked state in which the bonnet is locked by the lock mechanism engaging with the engaged portion and an unlocked state in which the bonnet is not locked by the lock mechanism not engaging with the engaged portion , wherein the lock mechanism comprises - a moving member that can move by being pressed by an operating tool (A); and - a lock member that engages with the engaged portion , and is disengaged from the engaged portion as the moving member moves, characterized in that the moving member comprises a guide portion that guides the operating tool (A) to press the moving member . - a moving member that can move by being pressed by an operating tool (A); and - a lock member that engages with the engaged portion , and is disengaged from the engaged portion as the moving member moves,
A cosmetic use of an association of a culture supernatant and a cell lysate of Lactobacillus pentosus, to reinforce the barrier function of the stratum corneum, said supernatant and said cell lysate originating from a Lactobacillus pentosus culture in the stationary phase, after a centrifugation of the culture medium to obtain a supernatant and a biomass, a separation of the supernatant and the biomass, a complete cell lysis of the biomass to obtain the lysate, and a mixture of said supernatant and said lysate in a weight ratio of the supernatant to the lysate of 1 to 50.
A data transmission interface in a first integrated circuit , IC, for encoding and sending a data packet from the first IC to a second IC via a data bus having three data wires (W 1 , W 2 , W 3 ), the data transmission interface being arranged to generate three time-dependent binary signals (V 1 , V 2 , V 3 ) which jointly encode the data packet, each of the binary signals being associated with a unique data wire of the data bus and spanning a temporal cycle T within which are defined six consecutive time stamps T 1 ... T 6 at which the binary signals are allowed to change logical state, the data transmission interface further arranged to transmit the binary signals to the second IC substantially in parallel on their respective data wires, wherein, irrespective of the data packet content: at each time stamp T 1 ... T 6 exactly one of the binary signals changes logical state; each binary signal changes logical state twice during the cycle; and in the first half of the cycle T, all binary signals change from a logical low state to a logical high state or all binary signals change from a logical high state to a logical low state. at each time stamp T 1 ... T 6 exactly one of the binary signals changes logical state; each binary signal changes logical state twice during the cycle; and in the first half of the cycle T, all binary signals change from a logical low state to a logical high state or all binary signals change from a logical high state to a logical low state.