mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing containers filled with a liquid filling material out of preforms made of a thermoplastic material, wherein the respective preform is thermally conditioned and then formed into the container during a forming and filling phase in a multi-part mound of a forming station , filling it with at least one liquid filling material as a pressure medium supplied to the preform under a pressure, wherein, while being formed into the container , the preform is preferably at least intermittently guided through a draw bar and is stretched in the axis direction, wherein the mould is transferable from an closed state into an open state for iteratively loading it with a preform and for subsequently removing a ready-formed container , wherein forming into the container is carried out against the mould inner wall with the mould closed , wherein the mould consists of a mould base and at least two lateral mould halves , wherein the mould base and the other moulding elements are movably arranged towards each other and border one another at dividing lines , wherein the mould base is arranged in the vertical direction below the lateral moulds , characterized in that , between successive loading operations, a method step of removing liquid from the mould is at least intermittently carried out via the mould base executing a tilting movement during or after transfer to its open state, in particular, starting with the transfer of the mould from the closed to the open state.
A rotary tube apparatus for cooling or heating flowable granular materials, with structures mounted on its walls for increasing the heat-transferring surface area as well as the thermal conduction, characterized in that the rotary tube apparatus has sections and that hollow tubes are arranged in the sections.
A pharmaceutical composition comprising tirzepatide, or a pharmaceutically acceptable salt thereof; NaC1; and diabasic sodium phosphate.
Method for fixing a rear bumper to a rear crossmember of a vehicle by means of two support components , characterized in that it comprises the following steps: - a step of referencing each support component on the crossmember , by inserting a bent-over fixing tab of the support component around an end edge of the crossmember and then pivoting said component about the bent-over tab until at least one peg of the support component becomes lodged in at least one orifice of the crossmember , - a step of fixing the two support components to the crossmember , - a step of fixing the bumper to the crossmember via the two support components . - a step of referencing each support component on the crossmember , by inserting a bent-over fixing tab of the support component around an end edge of the crossmember and then pivoting said component about the bent-over tab until at least one peg of the support component becomes lodged in at least one orifice of the crossmember , - a step of fixing the two support components to the crossmember , - a step of fixing the bumper to the crossmember via the two support components .
A method of enabling access to data, the method comprising: generating a plurality of sets of data; using a one-way function to generate first and second keys (K1,K2), the first key (K1) being associated with a first set of the plurality of sets of data and the second key (K2) being associated with a second set of the plurality of sets of data, wherein information associated with said the first set is used as an input to the one-way function when generating the first key (K1) and information associated with the second set is used as an input to the one-way function when generating the second key (K2); generating a third key (K3), the third key being related to a combination of at least the first and second keys (K1,K2); associating the third key with a third set of the plurality of sets of data; arranging for the first and second keys to be available for distribution to one or more requesting parties (24A-24C); receiving a data access request comprising a key from a requesting party of said one or more requesting parties; and enabling access, by the requesting party, to the third set of data based on receipt of either a combination of the first and second keys or the third key. generating a plurality of sets of data; using a one-way function to generate first and second keys (K1,K2), the first key (K1) being associated with a first set of the plurality of sets of data and the second key (K2) being associated with a second set of the plurality of sets of data, wherein information associated with said the first set is used as an input to the one-way function when generating the first key (K1) and information associated with the second set is used as an input to the one-way function when generating the second key (K2); generating a third key (K3), the third key being related to a combination of at least the first and second keys (K1,K2); associating the third key with a third set of the plurality of sets of data; arranging for the first and second keys to be available for distribution to one or more requesting parties (24A-24C); receiving a data access request comprising a key from a requesting party of said one or more requesting parties; and enabling access, by the requesting party, to the third set of data based on receipt of either a combination of the first and second keys or the third key.
A resin composition for a fiber-reinforced composite material, comprising: an epoxy resin (A) including a phenol novolac epoxy resin and a bisphenol A epoxy resin; a phenoxy resin (B); dicyandiamide (C); an imidazole-based curing aid (D); and a phenol-based curing accelerator (E) as essential components, wherein the phenol novolac epoxy resin constitutes 40 parts by mass to 75 parts by mass, the bisphenol A epoxy resin constitutes 10 parts by mass to 35 parts by mass, and the phenoxy resin (B) constitutes 5 parts by mass to 15 parts by mass in the total of 100 parts by mass of the components (A) to (E), the phenol-based curing accelerator (E) is bisphenol F having a binuclear moiety purity of 90% or more, and a blended amount thereof is 0.1 parts by mass to 1.0 part by mass per 100 parts by mass of the total amount of components (A) to (E).
A fluid handling system , comprising: a controller ; a plurality of valves configured for operative connection with a conduit along a flow path, each of the plurality of valves being controlled by the controller for selective movement between a first position and a second position, the first position closing the flow path, the second position opening the flow path; a pump configured for operative connection with the conduit , the pump being controlled by the controller for selective pumping of fluid through the flow path; and an interface in communication with the controller , the interface being configured to selectively define the flow path, from among a plurality of flow paths, through the plurality of valves ; characterized in that the plurality of valves each comprises a light , the light being controlled by the controller to provide a visual indication of whether the conduit is to be installed in a particular valve to define the flow path from among the plurality of flow paths. a controller ; a plurality of valves configured for operative connection with a conduit along a flow path, each of the plurality of valves being controlled by the controller for selective movement between a first position and a second position, the first position closing the flow path, the second position opening the flow path; a pump configured for operative connection with the conduit , the pump being controlled by the controller for selective pumping of fluid through the flow path; and an interface in communication with the controller , the interface being configured to selectively define the flow path, from among a plurality of flow paths, through the plurality of valves ; characterized in that the plurality of valves each comprises a light , the light being controlled by the controller to provide a visual indication of whether the conduit is to be installed in a particular valve to define the flow path from among the plurality of flow paths.
Device for protecting freight against slipping and/or tipping , having an inflatable inner bag , which can be filled and emptied via a valve and is otherwise airtight, and an outer bag , which fits closely to the inner bag and provides the device with sufficient stability against bursting and mechanical damage, wherein the inner bag is made of at least one section of a tubular film of plastic, characterized in that the inner bag is made of two sections of the tubular film laid inside one another or on top of one another, wherein a thickness of the film material is 40 μm or less. an inflatable inner bag , which can be filled and emptied via a valve and is otherwise airtight, and an outer bag , which fits closely to the inner bag and provides the device with sufficient stability against bursting and mechanical damage, wherein the inner bag is made of at least one section of a tubular film of plastic, characterized in that the inner bag is made of two sections of the tubular film laid inside one another or on top of one another, wherein a thickness of the film material is 40 μm or less.
A polycarbonate diol composition comprising a polycarbonate diol having a repeating unit represented by the following formula (A): wherein R represents a divalent hydrocarbon group having 3 to 20 carbon atoms, and a terminal hydroxyl group, wherein the repeating unit represented by formula (A) comprises a repeating unit of the following formula (B) : a proportion of the repeating unit represented by the formula (B) with respect to the total repeating unit represented by formula (A) is 84.0% by mass or more and 99.4% by mass or less; a number-average molecular weight of the polycarbonate diol, determined as described in "[2. Number-average molecular weight]" in the description, is 300 or more and 20,000 or less; a ratio of primary terminal OH of the polycarbonate diol is 95% or more; and the polycarbonate diol composition comprises 1,3-dioxan-2-one, wherein a content of 1,3-dioxan-2-one with respect to the repeating unit represented by formula (A) is 0.005 to 0.045 in a molar ratio. wherein R represents a divalent hydrocarbon group having 3 to 20 carbon atoms, and a terminal hydroxyl group, wherein the repeating unit represented by formula (A) comprises a repeating unit of the following formula (B) : a proportion of the repeating unit represented by the formula (B) with respect to the total repeating unit represented by formula (A) is 84.0% by mass or more and 99.4% by mass or less; a number-average molecular weight of the polycarbonate diol, determined as described in "[2. Number-average molecular weight]" in the description, is 300 or more and 20,000 or less; a ratio of primary terminal OH of the polycarbonate diol is 95% or more; and the polycarbonate diol composition comprises 1,3-dioxan-2-one, wherein a content of 1,3-dioxan-2-one with respect to the repeating unit represented by formula (A) is 0.005 to 0.045 in a molar ratio.
Method for thermal insulation of an evacuable container comprising an inner container, an outer container and a cavity disposed between the inner container and the outer container, wherein the cavity is provided to receive a thermally insulating particulate material and for receiving the thermally insulating particulate material the steps of evacuating the cavity, filling the thermally insulating particulate material into the cavity, compressing the thermally insulating particulate material in the cavity, evacuating the cavity and sealing the cavity are performed, wherein said method comprises a) using a vacuum pump to reduce a pressure in the cavity and after achieving a first value of the pressure interrupting the connection to the vacuum pump, b) subsequently making a connection from a reservoir container of the thermally insulating particulate material to a filling opening provided in the region of the cavity, c) setting the evacuable container into motion, wherein the thermally insulating particulate material flows into the cavity according to a) and the pressure in the cavity increases due to the air introduced with the thermally insulating particulate material, d) terminating the filling at a second value of the pressure by interrupting the connection from the cavity to the reservoir container, e) repeating step a), wherein the output of the vacuum pump with which the cavity is deaerated is controlled such that the profile over time of the mass flow exiting from the cavity of air introduced with the thermally insulating particulate material is at a maximum, f) subsequently repeating steps b)-e) up to the desired degree of filling and g) as the final step sealing the evacuated cavity. a) using a vacuum pump to reduce a pressure in the cavity and after achieving a first value of the pressure interrupting the connection to the vacuum pump, b) subsequently making a connection from a reservoir container of the thermally insulating particulate material to a filling opening provided in the region of the cavity, c) setting the evacuable container into motion, wherein the thermally insulating particulate material flows into the cavity according to a) and the pressure in the cavity increases due to the air introduced with the thermally insulating particulate material, d) terminating the filling at a second value of the pressure by interrupting the connection from the cavity to the reservoir container, e) repeating step a), wherein the output of the vacuum pump with which the cavity is deaerated is controlled such that the profile over time of the mass flow exiting from the cavity of air introduced with the thermally insulating particulate material is at a maximum, f) subsequently repeating steps b)-e) up to the desired degree of filling and g) as the final step sealing the evacuated cavity.
An atomizer , comprising: a liquid supply component , the liquid supply component being configured for storing tobacco liquid, the liquid supply component having a sealing means for sealing the tobacco liquid therein; an atomizing assembly ; and a piercing means for piercing the sealing means so that the tobacco liquid flows to the atomizing assembly , the atomizing assembly configured for heating the tobacco liquid to form aerosol; characterized in that the atomizer further comprises: an atomizing sleeve , the piercing means being received in the atomizing sleeve ; and a connector arranged at an end of the atomizing sleeve , the connector being configured for connecting to a power supply; wherein the atomizing assembly is positioned between the piercing means and the connector ; the liquid supply component comprises a liquid tank and an engaging part , the engaging part is configured for connecting to an opposite end of the atomizing sleeve ; the liquid tank defines the opening at one end, the sealing means is arranged at one end of the liquid tank , the sealing means comprises a silica gel stopper, the silica gel stopper has a thin film integrally formed, and the thin film is configured for sealing the opening. a liquid supply component , the liquid supply component being configured for storing tobacco liquid, the liquid supply component having a sealing means for sealing the tobacco liquid therein; an atomizing assembly ; and a piercing means for piercing the sealing means so that the tobacco liquid flows to the atomizing assembly , the atomizing assembly configured for heating the tobacco liquid to form aerosol; characterized in that the atomizer further comprises: an atomizing sleeve , the piercing means being received in the atomizing sleeve ; and a connector arranged at an end of the atomizing sleeve , the connector being configured for connecting to a power supply; an atomizing sleeve , the piercing means being received in the atomizing sleeve ; and a connector arranged at an end of the atomizing sleeve , the connector being configured for connecting to a power supply; wherein the atomizing assembly is positioned between the piercing means and the connector ; the liquid supply component comprises a liquid tank and an engaging part , the engaging part is configured for connecting to an opposite end of the atomizing sleeve ; the liquid tank defines the opening at one end, the sealing means is arranged at one end of the liquid tank , the sealing means comprises a silica gel stopper, the silica gel stopper has a thin film integrally formed, and the thin film is configured for sealing the opening.
An apparatus comprising: a first metal layer comprising a plurality of metal interconnect lines (M1, M1', M1") respectively on a plurality of vias (V0, V0', V0"); a second metal layer comprising first, second, and third metal interconnect lines (M2, M2', M2") respectively on first, second, and third vias (V1, V1', V1"); the first and third vias (V1, V1") respectively coupling the first and third metal interconnect lines (M2, M2") to two (M1, M1") of the plurality of metal interconnect lines (M1, M1', M1"); a lateral metal interconnect , included within the second metal layer, coupled to each of the first, second, and third metal interconnect lines (M2, M2', M2"); and a metal oxide included between the second via (V1') and one (V0') of the plurality of metal interconnect lines, wherein the metal oxide has a middle portion between two lateral portions (908; 910); and the middle portion has a maximum height and the two lateral portions (908; 910) each have a maximum height that is greater than the maximum height of the middle portion . a first metal layer comprising a plurality of metal interconnect lines (M1, M1', M1") respectively on a plurality of vias (V0, V0', V0"); a second metal layer comprising first, second, and third metal interconnect lines (M2, M2', M2") respectively on first, second, and third vias (V1, V1', V1"); the first and third vias (V1, V1") respectively coupling the first and third metal interconnect lines (M2, M2") to two (M1, M1") of the plurality of metal interconnect lines (M1, M1', M1"); a lateral metal interconnect , included within the second metal layer, coupled to each of the first, second, and third metal interconnect lines (M2, M2', M2"); and a metal oxide included between the second via (V1') and one (V0') of the plurality of metal interconnect lines, wherein the metal oxide has a middle portion between two lateral portions (908; 910); and the middle portion has a maximum height and the two lateral portions (908; 910) each have a maximum height that is greater than the maximum height of the middle portion . the metal oxide has a middle portion between two lateral portions (908; 910); and the middle portion has a maximum height and the two lateral portions (908; 910) each have a maximum height that is greater than the maximum height of the middle portion .
Circuit arrangement for protecting an electronic assembly , comprising the electronic assembly , a voltage source , a first subcircuit connected between the electronic assembly and the voltage source , wherein the first subcircuit comprises a comparator and an electronically controllable switch , wherein the comparator of the first subcircuit is configured to compare a voltage of the voltage source with a comparison voltage and to control the switch in a manner dependent thereon, wherein the switch is connected in series with the electronic assembly , and a second subcircuit connected between the electronic assembly and the voltage source , wherein the second subcircuit comprises a comparator and an electronically controllable switch , wherein the comparator of the second subcircuit is configured to detect negative voltage differences between the voltage source and the voltage at the electronic assembly and to control the switch in a manner dependent thereon, wherein the switch is connected in series with the electronic assembly , characterized in that the comparator of the first subcircuit and of the second subcircuit has a common bipolar transistor, wherein the base of said transistor, in the case of the first subcircuit, via a series resistor, is connected to the comparison voltage and is effectively influenced thereby, and, in the case of the second subcircuit, via the series resistor and a further resistor, is connected to the voltage source , wherein the comparator is common to the first subcircuit and to the second subcircuit. a voltage source , a first subcircuit connected between the electronic assembly and the voltage source , wherein the first subcircuit comprises a comparator and an electronically controllable switch , wherein the comparator of the first subcircuit is configured to compare a voltage of the voltage source with a comparison voltage and to control the switch in a manner dependent thereon, wherein the switch is connected in series with the electronic assembly , and a second subcircuit connected between the electronic assembly and the voltage source , wherein the second subcircuit comprises a comparator and an electronically controllable switch , wherein the comparator of the second subcircuit is configured to detect negative voltage differences between the voltage source and the voltage at the electronic assembly and to control the switch in a manner dependent thereon, wherein the switch is connected in series with the electronic assembly , characterized in that the comparator of the first subcircuit and of the second subcircuit has a common bipolar transistor, wherein the base of said transistor, in the case of the first subcircuit, via a series resistor, is connected to the comparison voltage and is effectively influenced thereby, and, in the case of the second subcircuit, via the series resistor and a further resistor, is connected to the voltage source , wherein the comparator is common to the first subcircuit and to the second subcircuit.
Method for producing injection-moulded parts from plastic with an injection mould which comprises an injection-moulding nozzle having a housing , which receives a nozzle core , and having a nozzle channel , which runs out in a nozzle slit and tapers in the flow direction, between the housing and the nozzle core , wherein the plastic melt in the form of at least one ribbon-like strand of melt is injected through a nozzle slit into a cavity of the injection mould before the injection-moulded part is demoulded once the plastic melt has solidified, characterised in that heat is supplied to the plastic melt in the region of the sprue during solidifying in the cavity by means of heating of the nozzle core with respect to the housing and so the sprue is torn off during demoulding of the injection-moulded part along the nozzle slit in the region of the sprue by reason of the temperature gradient between the solidified injection-moulded part and the plastic melt.