mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing flexible duplexing in wireless communications, comprising: communicating with a cell using frequency division duplexing, FDD, to separate an uplink frequency band and a downlink frequency band with the cell; receiving an indicator from the cell to implement time division duplexing, TDD, on the uplink frequency band; communicating with the cell using TDD to separate the uplink frequency band into a plurality of downlink subframes for receiving downlink communications from the cell and a plurality of uplink subframes for transmitting uplink communications to the cell based at least in part on receiving the indicator; and receiving a reference TDD configuration from the cell indicating at least one of the plurality of uplink subframes for transmitting an acknowledgement, ACK, /negative-ACK, NACK, to the cell in the uplink frequency band. communicating with a cell using frequency division duplexing, FDD, to separate an uplink frequency band and a downlink frequency band with the cell; receiving an indicator from the cell to implement time division duplexing, TDD, on the uplink frequency band; communicating with the cell using TDD to separate the uplink frequency band into a plurality of downlink subframes for receiving downlink communications from the cell and a plurality of uplink subframes for transmitting uplink communications to the cell based at least in part on receiving the indicator; and receiving a reference TDD configuration from the cell indicating at least one of the plurality of uplink subframes for transmitting an acknowledgement, ACK, /negative-ACK, NACK, to the cell in the uplink frequency band.
Connecting device for connecting an electrical line , having a housing which has a plug opening for plugging in an electrical line , and an electric contact element which is disposed on the housing and from an opening position is adjustable to a contacting position so as to, in the contacting position, electrically contact an electrical line plugged into the plug opening , wherein a rocker element which has a bearing head , mounted so as to be tiltable on a bearing portion that is stationary relative to the housing , and has a rocker leg which extends from the bearing head , characterized in that the rocker element in a first tilted position is configured to hold the contact element in the opening position, wherein the rocker element , as a result of the electrical line acting on the rocker leg when plugging in the electrical line into the plug opening , is tiltable from the first tilted position to a second tilted position so as to release the contact element for transfer to the contacting position, wherein the contact element has at least one latching portion which in the opening position is latched by the rocker element .
Tap for pressurised fluid, with or without integrated pressure reducer, comprising a body housing a fluid circuit having an upstream end intended to be connected with a pressurised fluid reserve and a downstream end intended to be connected with a receiving device, the circuit comprising a member for controlling the flow in the circuit , said member for controlling the flow being controlled by a mobile actuation member with respect to the body of the tap , the tap comprising at least one first electronic functional member and a second electronic functional member , the second electronic functional member being removably mounted on the body of the tap, characterised in that the tap comprises at least one housing intended to receive said second electronic functional member and an electric contact device intended to engage with a set of electric contact(s) conjugated from the second electronic functional member , to ensure an electrical connection between the first electronic functional member and the second electronic functional member when the latter is in position mounted on the body of the tap.
A lens indexing assembly , comprising a holding portion and a rotating portion , the holding portion is configured to support the rotating portion , wherein the holding portion has an outer surface configured for holding and a bearing surface ; the rotating portion is configured for coupling with the holding portion , wherein the rotating portion is configured to rotate relative to the holding portion , and wherein the rotating portion has a bearing surface for rotating relative to the bearing surface of the holding portion , the rotating portion having an interface for coupling to an ophthalmic contact lens ; characterized in that the holding portion includes a plurality of tactile features on the outer surface of the holding portion , the plurality of tactile features of the holding portion including a plurality of fingertip indentations or a plurality of fingertip protrusions; wherein the rotating portion includes a plurality of tactile features on an outer surface , the plurality of tactile features of the rotating portion including a plurality of fingertip indentations or a plurality of fingertip protrusions, and wherein at least one of the plurality of tactile features on the outer surface of the rotating portion is configured to align with the plurality of tactile features of the holding portion as the rotating portion rotates relative to the holding portion to provide tactile feedback corresponding to a plurality of angular positions of the ophthalmic contact lens relative to the holding portion . the holding portion is configured to support the rotating portion , wherein the holding portion has an outer surface configured for holding and a bearing surface ; the rotating portion is configured for coupling with the holding portion , wherein the rotating portion is configured to rotate relative to the holding portion , and wherein the rotating portion has a bearing surface for rotating relative to the bearing surface of the holding portion , the rotating portion having an interface for coupling to an ophthalmic contact lens ; characterized in that the holding portion includes a plurality of tactile features on the outer surface of the holding portion , the plurality of tactile features of the holding portion including a plurality of fingertip indentations or a plurality of fingertip protrusions; wherein the rotating portion includes a plurality of tactile features on an outer surface , the plurality of tactile features of the rotating portion including a plurality of fingertip indentations or a plurality of fingertip protrusions, and wherein at least one of the plurality of tactile features on the outer surface of the rotating portion is configured to align with the plurality of tactile features of the holding portion as the rotating portion rotates relative to the holding portion to provide tactile feedback corresponding to a plurality of angular positions of the ophthalmic contact lens relative to the holding portion .
A method for the determination of the hyaluronic acid content of a hydrogel, the method comprising the following steps: a. preparing, as reagent A, a solution of sodium tetraborate in sulfuric acid; b. preparing reagent B by dissolving carbazole in ethanol; c. preparing test solutions by dissolving the hydrogel in an aqueous solution; d. treating the test solution with ultrasounds for a period of time sufficient to obtain a macroscopically homogeneous solution; e. preparing a reference stock solution by dissolving glucuronic acid, or a glucuronic acid-containing substance in an aqueous solution; f. preparing at least 3 reference solutions by dilution of the reference stock solution in aqueous solution, preferably at concentration comprised between 0.0005% w/v and 0.0100% w/v, preferably between 0.0010 % w/v and 0.0050 % w/v; g. preparing the test tubes by admixing reagent A, reagent B and one of the following: reference solution, test solution, aqueous solution (blank), and optionally solution for interference (crosslinker sample or additive sample); place each test tube on a water bath for at least 5 min, then cool them to room temperature; h. reading the absorbance at a wavelength comprised between 500 and 580 nm, preferably at about 530 nm, against the blank and optionally the sample for interference. a. preparing, as reagent A, a solution of sodium tetraborate in sulfuric acid; b. preparing reagent B by dissolving carbazole in ethanol; c. preparing test solutions by dissolving the hydrogel in an aqueous solution; d. treating the test solution with ultrasounds for a period of time sufficient to obtain a macroscopically homogeneous solution; e. preparing a reference stock solution by dissolving glucuronic acid, or a glucuronic acid-containing substance in an aqueous solution; f. preparing at least 3 reference solutions by dilution of the reference stock solution in aqueous solution, preferably at concentration comprised between 0.0005% w/v and 0.0100% w/v, preferably between 0.0010 % w/v and 0.0050 % w/v; g. preparing the test tubes by admixing reagent A, reagent B and one of the following: reference solution, test solution, aqueous solution (blank), and optionally solution for interference (crosslinker sample or additive sample); place each test tube on a water bath for at least 5 min, then cool them to room temperature; h. reading the absorbance at a wavelength comprised between 500 and 580 nm, preferably at about 530 nm, against the blank and optionally the sample for interference.
Method for electron beam cross-linking of a flexible plastic tube by means of at least one electron beam source , - wherein the plastic tube expediently has at least one tube layer made of cross-linkable plastic material, preferably polyethylene, - wherein the flexible plastic tube is fed in a continuous manner at a preferably constant transport speed (v) to a cross-linking device having the electron beam source - wherein cross-linking of the plastic tube takes place in the cross-linking device by electron irradiation (E) of the plastic tube passing continuously past the electron beam source , - wherein the plastic tube is continuously guided past the electron beam source several times, and - wherein the tube layer made of cross-linkable plastic material represents the innermost layer of the plastic tube , characterised in that the plastic tube has a free inside diameter (di) of 0.8 to 2 cm and is so flexible that it can be wound onto a tube reel with a diameter of 40 cm without kinking, and in that a reinforcing layer , preferably consisting of filaments, e.g. threads and/or fibres, is applied to the tube layer made of cross-linkable plastic material. - wherein the plastic tube expediently has at least one tube layer made of cross-linkable plastic material, preferably polyethylene, - wherein the flexible plastic tube is fed in a continuous manner at a preferably constant transport speed (v) to a cross-linking device having the electron beam source - wherein cross-linking of the plastic tube takes place in the cross-linking device by electron irradiation (E) of the plastic tube passing continuously past the electron beam source , - wherein the plastic tube is continuously guided past the electron beam source several times, and - wherein the tube layer made of cross-linkable plastic material represents the innermost layer of the plastic tube ,
Plant for the automated manufacture of a cable harness , which comprises a branched structure and a plurality of individual line elements , wherein the plant comprises - a control unit to for controlling the system - a distribution station (F) for distributing the line elements into a predetermined distribution structure according to the branched structure of the cable harness - a second rail system with - a second rail system with a plurality of second rails oriented in parallel to each other, which are adjustable in a first direction independently of each other and depending on the predetermined branched structure of the cable harness , and with - a plurality of second transporters , each of which is designed to receive a line end of a respective line element and which are movable along the second rails in a second direction , wherein it possible to produce the desired distribution structure by moving the second rails in the first direction and by moving the second transporters along the second rails , wherein a plurality of adjacent second processing stations are arranged and each of the second processing stations comprises a plurality of second rails , which are individually movable in the first direction , characterized in that the control unit is designed in such a way that the second rails of adjacent second processing stations depending on the distribution structure and for transfer of the second transporters are brought into aligned orientation with respect to each another. - a control unit to for controlling the system - a distribution station (F) for distributing the line elements into a predetermined distribution structure according to the branched structure of the cable harness - a second rail system with - a second rail system with a plurality of second rails oriented in parallel to each other, which are adjustable in a first direction independently of each other and depending on the predetermined branched structure of the cable harness , and with - a plurality of second transporters , each of which is designed to receive a line end of a respective line element and which are movable along the second rails in a second direction , wherein it possible to produce the desired distribution structure by moving the second rails in the first direction and by moving the second transporters along the second rails , wherein
. A catalytic zeolite comprising: a. an aluminosilicate zeolite material comprising silica and alumina in a CHA framework and having a silica-to-alumina mole ratio (SAR) of 10 to 25; b. 1 to 5 weight percent of Cu, based on the total weight of the zeolite material, wherein said Cu disposed in said zeolite material as free and/or extra-framework exchanged metal, and c. Ca disposed in said zeolite material disposed in said zeolite material as free and/or extra-framework exchanged metal, wherein the Cu and Ca are present, respectively, in a molar ratio of 15:1 to 1:1. a. an aluminosilicate zeolite material comprising silica and alumina in a CHA framework and having a silica-to-alumina mole ratio (SAR) of 10 to 25; b. 1 to 5 weight percent of Cu, based on the total weight of the zeolite material, wherein said Cu disposed in said zeolite material as free and/or extra-framework exchanged metal, and c. Ca disposed in said zeolite material disposed in said zeolite material as free and/or extra-framework exchanged metal,
A method for starting a parked vehicle located in a parking position in a park mode to perform a cooperative parking maneuver, said parked vehicle being equipped with an on-board communication module , characterized in that said method comprises the steps of: - registering, with an exchange of messages (M2, M3, M4), wake-up information in a parking backend server once the parked vehicle is put in said park mode, said wake-up information comprising information about communication resources to be used for sending a wake-up message (M8) to said parked vehicle and for identifying said wake-up message (M8); - listening to said registered communication resources during said park mode and, when receiving said wake-up message (M8) from an arriving vehicle , leaving said park mode and switching to a normal operation mode; - sending a starting request message (M9) to said parking backend server ; - receiving a starting message (M10) from said parking backend server ; and - directly or indirectly starting the engine or motor for performing said cooperative parking maneuver. - registering, with an exchange of messages (M2, M3, M4), wake-up information in a parking backend server once the parked vehicle is put in said park mode, said wake-up information comprising information about communication resources to be used for sending a wake-up message (M8) to said parked vehicle and for identifying said wake-up message (M8); - listening to said registered communication resources during said park mode and, when receiving said wake-up message (M8) from an arriving vehicle , leaving said park mode and switching to a normal operation mode; - sending a starting request message (M9) to said parking backend server ; - receiving a starting message (M10) from said parking backend server ; and - directly or indirectly starting the engine or motor for performing said cooperative parking maneuver.
A compounder system for reconstituting, mixing, and delivering a drug from a vial to a receiving container, comprising: a cartridge characterized by having: a plurality of controllable fluid pathways fluidly coupled to at least one diluent port , a waste port , and a receiving container port ; and a rotary piston pump/valve rotatable to control movement of a fluid through at least one of the controllable fluid pathways. a plurality of controllable fluid pathways fluidly coupled to at least one diluent port , a waste port , and a receiving container port ; and a rotary piston pump/valve rotatable to control movement of a fluid through at least one of the controllable fluid pathways.
A method for a wireless communication device having a first Subscriber Identity Module "SIM" associated with a first subscription and a second SIM associated with a second subscription, the method comprising: sending (B310), by the wireless communication device to a network base station, a message related to periodic tune-away; and receiving (B320), by the wireless communication device from the network base station, a network response in response to the message, characterized in that : the message sent is a control element indicating a periodic tune away of the first SIM to the second SIM, the control element including a first value tag, the method further comprising: determining, by the wireless communication device, whether a feedback control element has been received from the network base station; and resending the control element indicating the periodic tune away of the first SIM to the second SIM, responsive to determining that the feedback control element has not been received, wherein determining whether the feedback control element has been received further comprises: receiving a feedback control element including a second value tag; and determining a match between the first value tag of the control element and the second value tag of the feedback control element. sending (B310), by the wireless communication device to a network base station, a message related to periodic tune-away; and receiving (B320), by the wireless communication device from the network base station, a network response in response to the message, characterized in that : the message sent is a control element indicating a periodic tune away of the first SIM to the second SIM, the control element including a first value tag, the method further comprising: determining, by the wireless communication device, whether a feedback control element has been received from the network base station; and resending the control element indicating the periodic tune away of the first SIM to the second SIM, responsive to determining that the feedback control element has not been received, wherein determining whether the feedback control element has been received further comprises: receiving a feedback control element including a second value tag; and determining a match between the first value tag of the control element and the second value tag of the feedback control element. determining, by the wireless communication device, whether a feedback control element has been received from the network base station; and resending the control element indicating the periodic tune away of the first SIM to the second SIM, responsive to determining that the feedback control element has not been received, wherein determining whether the feedback control element has been received further comprises: receiving a feedback control element including a second value tag; and determining a match between the first value tag of the control element and the second value tag of the feedback control element. receiving a feedback control element including a second value tag; and determining a match between the first value tag of the control element and the second value tag of the feedback control element.
A photosensitive resin composition comprising (A) a polymer comprising repeat units having the formula (A1) and repeat units of at least one type selected from repeat units having the formula (A2) and repeat units having the formula (A3), shown below, (B) an epoxy compound containing on the average at least four epoxy groups per molecule, (C) a photoacid generator, (D) a benzotriazole compound and/or imidazole compound, and (E) an organic solvent, wherein X 1 and X 2 are each independently hydrogen or glycidyl group, Y 1 is a C 1 -C 5 alkanediyl group, Z 1 is a C 1 -C 10 straight alkanediyl group which may contain hydroxy, a C 2 -C 10 branched alkanediyl group, or a divalent group having the formula (A4): wherein Z 11 and Z 13 are each independently a C 1 -C 5 alkanediyl group, Z 12 is a C 1 -C 30 hydrocarbylene group, a4 and a5 are each independently an integer of 1 to 50, Z 2 and Z 3 are each independently a single bond or a C 1 -C 10 alkanediyl group, R 1 , R 2 , R 3 , and R 4 are each independently hydrogen or a C 1 -C 10 hydrocarbyl group, a1, a2, and a3 are numbers in the range: 0 < a1 < 1, 0 ≤ a2 < 1, 0 ≤ a3 < 1, and a1+a2+a3 = 1, x and y are each independently an integer of 1 to 50. (A) a polymer comprising repeat units having the formula (A1) and repeat units of at least one type selected from repeat units having the formula (A2) and repeat units having the formula (A3), shown below, (B) an epoxy compound containing on the average at least four epoxy groups per molecule, (C) a photoacid generator, (D) a benzotriazole compound and/or imidazole compound, and (E) an organic solvent, wherein X 1 and X 2 are each independently hydrogen or glycidyl group, Y 1 is a C 1 -C 5 alkanediyl group, Z 1 is a C 1 -C 10 straight alkanediyl group which may contain hydroxy, a C 2 -C 10 branched alkanediyl group, or a divalent group having the formula (A4): wherein Z 11 and Z 13 are each independently a C 1 -C 5 alkanediyl group, Z 12 is a C 1 -C 30 hydrocarbylene group, a4 and a5 are each independently an integer of 1 to 50, Z 2 and Z 3 are each independently a single bond or a C 1 -C 10 alkanediyl group, R 1 , R 2 , R 3 , and R 4 are each independently hydrogen or a C 1 -C 10 hydrocarbyl group, a1, a2, and a3 are numbers in the range: 0 < a1 < 1, 0 ≤ a2 < 1, 0 ≤ a3 < 1, and a1+a2+a3 = 1, x and y are each independently an integer of 1 to 50.