mhurhangee/patent-ind-claim-en huggingface dataset:
A method for switching between steady-state and non-steady-state operation of a process for the production of a polymer by polymerisation of a monomer in the gas phase in the presence of a comonomer and/or hydrogen which process comprises: a1. At non-steady-state controlling the process based on the ratio of comonomer in the gas phase in the reactor to monomer in the gas phase in the reactor, and b1. At steady-state controlling the process based on the flow ratio of comonomer to monomer to the reactor, and/or a2. At non-steady-state controlling the process based on the ratio of hydrogen in the gas phase in the reactor to monomer in the gas phase in the reactor, and b2. At steady-state controlling the process based on the flow ratio of hydrogen to monomer to the reactor, wherein the term "non-steady state" refers to operation during which the production rate of polymer changes or the operation during which the polymer properties of the polymer being produced change, and the term "steady-state" refers to operation which aims to maintain an hourly production of polymer and properties of the polymer being made that vary by less than +/-10% from an average over a period of time of 1 day, and further wherein the respective controlling methods are each applied for at least 50% of the time during which the process is in the respective steady-state or non-steady state operation. a1. At non-steady-state controlling the process based on the ratio of comonomer in the gas phase in the reactor to monomer in the gas phase in the reactor, and b1. At steady-state controlling the process based on the flow ratio of comonomer to monomer to the reactor, and/or a2. At non-steady-state controlling the process based on the ratio of hydrogen in the gas phase in the reactor to monomer in the gas phase in the reactor, and b2. At steady-state controlling the process based on the flow ratio of hydrogen to monomer to the reactor, the term "non-steady state" refers to operation during which the production rate of polymer changes or the operation during which the polymer properties of the polymer being produced change, and the term "steady-state" refers to operation which aims to maintain an hourly production of polymer and properties of the polymer being made that vary by less than +/-10% from an average over a period of time of 1 day, and further wherein the respective controlling methods are each applied for at least 50% of the time during which the process is in the respective steady-state or non-steady state operation.
A method of controlling vehicle gear shifting at a Gear Select Module , wherein the Gear Select Module is an electronic control unit, the method comprising: identifying a current gear shift position of a gear shift, wherein the gear shift comprises a knob; identifying a change intention from the current gear shift position to a new gear shift position; executing a Gear Select Module autonomous control strategy between detection of the gear shift change intention and until reception of an actuation signal from a transmission control module , wherein the transmission control module is an electronic control unit, wherein the Gear Select Module is connected with the transmission control module through a bus, wherein executing a Gear Select Module autonomous control strategy comprises one or more of (i) blocking the change from the current gear shift position to the new gear shift position, (ii) increasing the difficulty to change from the current gear shift position to the new gear shift position, and (iii) vibrating the Gear Select Module , transmitting the identified change intention to the transmission control module ; receiving a control strategy command from the transmission control module ; and switching from the Gear Select Module autonomous control strategy to the transmission control module control strategy when the control strategy command is received. identifying a current gear shift position of a gear shift, wherein the gear shift comprises a knob; identifying a change intention from the current gear shift position to a new gear shift position; executing a Gear Select Module autonomous control strategy between detection of the gear shift change intention and until reception of an actuation signal from a transmission control module , wherein the transmission control module is an electronic control unit, wherein the Gear Select Module is connected with the transmission control module through a bus, wherein executing a Gear Select Module autonomous control strategy comprises one or more of (i) blocking the change from the current gear shift position to the new gear shift position, (ii) increasing the difficulty to change from the current gear shift position to the new gear shift position, and (iii) vibrating the Gear Select Module , transmitting the identified change intention to the transmission control module ; receiving a control strategy command from the transmission control module ; and switching from the Gear Select Module autonomous control strategy to the transmission control module control strategy when the control strategy command is received.
A hose line for a fluid medium - particularly a ventilation hose - in the form of a strip-wound hose with at least one plastic strip , which is helically wound into a hose body, and with at least one reinforcement coil , which is connected to the hose body and reinforces the hose body, wherein the plastic strip is realized in the form of a polymeric plastic foam, wherein the plastic foam has a pore volume of 10 to 75%, particularly 15 to 70%, and wherein the reinforcement coil is realized in the form of a coil of plastic that is coextruded with the plastic strip.
A method for wireless communication at a user equipment, UE , comprising: receiving a signal identifying a first beam configuration and a second beam configuration to be used for performing a beamformed transmission of a physical uplink control channel, PUCCH signal, wherein a beam configuration refers to a characteristic of the respective beam, including a beam direction, a beam width, a beam shape, and/or a quasi-colocation, QCL feature; selecting the first beam configuration as a primary configuration to be used for performing the beamformed transmission; determining , for a first PUCCH transmission occasion associated with the first beam configuration, that a performance level associated with performing the beamformed transmission of the PUCCH signal using the first beam configuration fails to satisfy a threshold; autonomously selecting the second beam configuration to use to perform the PUCCH signal transmission; identifying a first available PUCCH transmission occasion that occurs after a time-offset value following the first PUCCH transmission occasion, wherein a second PUCCH transmission occasion is based on the first available PUCCH transmission occasion; and performing , at the second PUCCH transmission occasion, the beamformed transmission of the PUCCH signal according to the selected second beam configuration. receiving a signal identifying a first beam configuration and a second beam configuration to be used for performing a beamformed transmission of a physical uplink control channel, PUCCH signal, wherein a beam configuration refers to a characteristic of the respective beam, including a beam direction, a beam width, a beam shape, and/or a quasi-colocation, QCL feature; selecting the first beam configuration as a primary configuration to be used for performing the beamformed transmission; determining , for a first PUCCH transmission occasion associated with the first beam configuration, that a performance level associated with performing the beamformed transmission of the PUCCH signal using the first beam configuration fails to satisfy a threshold; autonomously selecting the second beam configuration to use to perform the PUCCH signal transmission; identifying a first available PUCCH transmission occasion that occurs after a time-offset value following the first PUCCH transmission occasion, wherein a second PUCCH transmission occasion is based on the first available PUCCH transmission occasion; and performing , at the second PUCCH transmission occasion, the beamformed transmission of the PUCCH signal according to the selected second beam configuration.
Liquid dispenser for the discharge of, in particular, pharmaceutical liquids with the following features: a. the liquid dispenser has a discharge head , on which a discharge opening is provided, and b. the liquid dispenser has a cap with a cap body which can be placed onto the discharge head and can be removed from the latter and, in the placed-on state, covers the discharge opening , and c. the cap body has an aerating opening which connects the surrounding atmosphere to an interior space of the cap body , with the result that, after initial operation of the liquid dispenser in the case of a placed-on cap body , the discharge opening which is covered by the cap body can dry off by way of the connection to the surrounding atmosphere, and d. the cap has a moulded pull-off section which, in the delivery state, covers the aeration opening and is connected in an integrally joined manner to the cap body , and e. the cap has a tamper-evident section which, in the delivery state of the dispenser, prevents a removal of the cap body until the tamper-evident section has been removed from the cap body , and f. the cap has a segment which can be severed in its entirety from the cap body and has the tamper-evident section and the pull-off section , characterized by the following additional feature: g. the severable segment has a gripping section which is attached to the severable segment in such a way that loading of the gripping section with force away from the cap body initially causes severing of the pull-off section from the cap body and subsequently causes severing of the tamper-evident section from the cap body . a. the liquid dispenser has a discharge head , on which a discharge opening is provided, and b. the liquid dispenser has a cap with a cap body which can be placed onto the discharge head and can be removed from the latter and, in the placed-on state, covers the discharge opening , and c. the cap body has an aerating opening which connects the surrounding atmosphere to an interior space of the cap body , with the result that, after initial operation of the liquid dispenser in the case of a placed-on cap body , the discharge opening which is covered by the cap body can dry off by way of the connection to the surrounding atmosphere, and d. the cap has a moulded pull-off section which, in the delivery state, covers the aeration opening and is connected in an integrally joined manner to the cap body , and e. the cap has a tamper-evident section which, in the delivery state of the dispenser, prevents a removal of the cap body until the tamper-evident section has been removed from the cap body , and f. the cap has a segment which can be severed in its entirety from the cap body and has the tamper-evident section and the pull-off section ,
A composition comprising a mixture of silyl hydride, a silanol and/or a silyl ether, and a Bridged Frustrated Lewis Pair.
A system for weighing continuous food dough and for cutting it into pieces having a targeted weight, the system comprising: an inlet conveyor for carrying forward the continuous food dough (D); a weighing conveyor device disposed adjacent to and at a downstream side of the inlet conveyor ; a cutting apparatus for cutting out the pieces from the continuous food dough (D); and a controller connected to the inlet conveyor , the weighing conveyor device , and the cutting apparatus ; wherein the weighing conveyor device has a first weighing conveyor and a second weighing conveyor disposed adjacent to and at a downstream side of the first weighing conveyor ; wherein the controller is configured to measure a weight of the continuous food dough (D) being carried forward by the first and the second weighing conveyors (6, 26; 7, 27); characterized in that the controller is further configured to measure, by means of the first and the second weighing conveyors (6, 26; 7, 27), an actual weight of the piece of the food dough (P) cut out from the continuous food dough (D). an inlet conveyor for carrying forward the continuous food dough (D); a weighing conveyor device disposed adjacent to and at a downstream side of the inlet conveyor ; a cutting apparatus for cutting out the pieces from the continuous food dough (D); and a controller connected to the inlet conveyor , the weighing conveyor device , and the cutting apparatus ; wherein the weighing conveyor device has a first weighing conveyor and a second weighing conveyor disposed adjacent to and at a downstream side of the first weighing conveyor ; wherein the controller is configured to measure a weight of the continuous food dough (D) being carried forward by the first and the second weighing conveyors (6, 26; 7, 27); characterized in that the controller is further configured to measure, by means of the first and the second weighing conveyors (6, 26; 7, 27), an actual weight of the piece of the food dough (P) cut out from the continuous food dough (D).
A Cas9 protein comprising a ligand-dependent intein that replaces or is inserted at an amino acid residue that is within 5, within 10, within 15, or within 20 amino acid residues of Ala127, Thr146, Ser219, Thr333, Thr519, Cys574, Ser701, Ala728, Thr995, Ser1006, Ser1154, Ser1159, or Ser1274 of SEQ ID NO: 2 or at a corresponding residue of an amino acid sequence having at least 90% sequence identity with SEQ ID NO: 2 wherein a nuclease, DNA binding or gRNA-binding activity of the Cas9 protein is disrupted by the intein, and wherein the disrupted activity is restored upon excision of the intein from the Cas9 protein.
Transport container , in particular vehicle body or receptacle, with a frame structure enclosing a transport space, with a wall unit which is connected to the frame structure and which has a side wall , and with an opening device for transferring the wall unit between a closure position bearing on the frame structure , in which closure position a lateral loading opening of the frame structure is closed by the side wall , and an open position freeing the lateral loading opening , wherein the opening device has a lifting arm connected in a hinged manner to the wall unit . The lifting arm is connected to the frame structure via two pivot arms , wherein hinges are provided between the pivot arms and the lifting arm, and hinges are provided between the pivot arms and the frame structure , wherein the hinges between the pivot arms and the lifting arm and the hinges between the pivot arms and the frame structure are arranged at a distance from each other in each case, characterized in that the second joints between the second pivot arms and the frame structure essentially in the horizontal direction, perpendicularly to the hinge axes of which are spaced from one another, the second pivot arms and the frame structure being substantially in the horizontal direction, the second pivot arms and the frame structure being spaced from one another perpendicularly to their hinge axes, the second pivot arms and the frame structure being substantially in the horizontal direction. Joints between the pivot arms and the frame structure are preferably arranged substantially in the same horizontal plane and the first joints between the pivot arms and the lifting arm , and the second joints are arranged between the pivot arms and the frame structure in such a way that the pivot arms are arranged crosswise in sections when the wall unit is transferred from the closed position into the open position.
Receiver drier for a condenser of a heat exchange fluid, comprising an elongated, cylindrical housing forming an internal volume with a first end with an inlet and a second end , opposite the first end , with an outlet , further comprising an internal assembly comprising a baffle dividing the internal volume of the housing so that on a first side of the baffle there is a first internal volume (Va), and on a second side of the baffle there is a second internal volume (Vb), the baffle comprising a through-hole , a tube attached to the through-hole in the baffle from the first side , so that the fluid can travel through the tube from the first side of the baffle to the second side of the baffle , wherein the tube and the baffle are a single, integral part, characterized in that the tube is at its first end attached to the though-hole of the baffle , and at its second end it comprises a positioning device cooperating with the housing .
A flexible container comprising: A. a front panel , a rear panel , a first gusseted side panel , and a second gusseted side panel , the gusseted side panels adjoining the front panel and the rear panel along peripheral seals to form a chamber; B. each peripheral seal having (i) a body seal inner edge (BSIE) (134a-134d) with a bottom end and an opposing top end, (ii) a bottom tapered seal inner edge (b-TSIE) extending from the body seal inner edge (BSIE)(134a-134d) bottom end; (iii) a top tapered seal inner edge (t-TSIE) (136a-136d) extending from the body seal inner edge (BSIE)(134a-134d) top end characterized by C. that the top tapered seal inner edge (t-TSIE)(136a-136d) has a length that is at least 1.1 times greater than the length of the body seal inner edge (BSIE); wherein each body seal inner edge (BSIE)(134a-134d) top end has a top point; and a plane containing all four body seal inner edge (BSIE)(134a-134d) top points defines a lower container volume, the lower container volume is at least 51% of the total volume of the flexible container . A. a front panel , a rear panel , a first gusseted side panel , and a second gusseted side panel , the gusseted side panels adjoining the front panel and the rear panel along peripheral seals to form a chamber; B. each peripheral seal having (i) a body seal inner edge (BSIE) (134a-134d) with a bottom end and an opposing top end, (ii) a bottom tapered seal inner edge (b-TSIE) extending from the body seal inner edge (BSIE)(134a-134d) bottom end; (iii) a top tapered seal inner edge (t-TSIE) (136a-136d) extending from the body seal inner edge (BSIE)(134a-134d) top end characterized by (i) a body seal inner edge (BSIE) (134a-134d) with a bottom end and an opposing top end, (ii) a bottom tapered seal inner edge (b-TSIE) extending from the body seal inner edge (BSIE)(134a-134d) bottom end; (iii) a top tapered seal inner edge (t-TSIE) (136a-136d) extending from the body seal inner edge (BSIE)(134a-134d) top end characterized by C. that the top tapered seal inner edge (t-TSIE)(136a-136d) has a length that is at least 1.1 times greater than the length of the body seal inner edge (BSIE);
A wireless charging apparatus comprising: a charging element for wirelessly charging a remote device, and a controller for controlling transmitted power provided by the charging element; wherein the controller is configured to request a charging voltage from a varying-voltage power source capable of providing varying voltages, and to control the power level transmitted by the charging element by controlling the charging voltage requested from said varying-voltage power source; characterized in that : said varying-voltage power source is an external power source and the wireless charging apparatus comprises a cable comprising a connector, being detachably connectable to the external power source, or a connector port , wherein the connector port or cable provides a power interface for receiving the charging voltage from the external power source and a control interface for communicating with the external power source, and wherein the controller is configured to perform said request and control of the charging voltage via said control interface as provided by said connector port or cable. a charging element for wirelessly charging a remote device, and a controller for controlling transmitted power provided by the charging element; wherein the controller is configured to request a charging voltage from a varying-voltage power source capable of providing varying voltages, and to control the power level transmitted by the charging element by controlling the charging voltage requested from said varying-voltage power source; characterized in that : said varying-voltage power source is an external power source and the wireless charging apparatus comprises a cable comprising a connector, being detachably connectable to the external power source, or a connector port , wherein the connector port or cable provides a power interface for receiving the charging voltage from the external power source and a control interface for communicating with the external power source, and wherein the controller is configured to perform said request and control of the charging voltage via said control interface as provided by said connector port or cable.
A sputtering target characterized by having a composition, containing: 45 at% to 90 at% of In, optionally 0.1 at% to 10 at% of a Na compound, optionally 0.1 at% to 10 at% of a K compound, and the remainder being Cu and inevitable impurities, wherein an In single phase and a Cu 11 In 9 compound phase exist, and an XRD peak ratio I(In)/I(Cu 11 In 9 ) between the In single phase and the Cu 11 In 9 compound phase is in a range of 0.01 to 3, an average grain size of the Cu 11 In 9 compound phase is 150 μm or less, an amount of oxygen is 500 mass ppm or less, a theoretical density ratio is 85% or more, an amount of the Na compound is in terms of a Na component, and an amount of the K compound is in terms of a K component, I(Cu 11 In 9 ) is set as a peak intensity pertaining to a plane of Cu 11 In 9 according to DB card 01-065-4963, I(In) is set as a peak intensity pertaining to a plane of In according to DB card 01-074-6393, the theoretical density ratio is a density of a defect-free ingot of 10 cm×10 cm×10 cm obtained by melting a molten metal having a Cu/In ratio corresponding to the sputtering target and cooling the molten metal at a cooling rate 5 °C/min or less, and the amount of oxygen is measured by using TC600, manufactured by LECO JAPAN CORPORATION, in conformity to an infrared absorbing method described in JIS Z 2613 "General rules for determination of oxygen in metallic materials". 45 at% to 90 at% of In, optionally 0.1 at% to 10 at% of a Na compound, optionally 0.1 at% to 10 at% of a K compound, and the remainder being Cu and inevitable impurities, wherein an In single phase and a Cu 11 In 9 compound phase exist, and an XRD peak ratio I(In)/I(Cu 11 In 9 ) between the In single phase and the Cu 11 In 9 compound phase is in a range of 0.01 to 3, an average grain size of the Cu 11 In 9 compound phase is 150 μm or less, an amount of oxygen is 500 mass ppm or less, a theoretical density ratio is 85% or more, an amount of the Na compound is in terms of a Na component, and an amount of the K compound is in terms of a K component, I(Cu 11 In 9 ) is set as a peak intensity pertaining to a plane of Cu 11 In 9 according to DB card 01-065-4963, I(In) is set as a peak intensity pertaining to a plane of In according to DB card 01-074-6393, the theoretical density ratio is a density of a defect-free ingot of 10 cm×10 cm×10 cm obtained by melting a molten metal having a Cu/In ratio corresponding to the sputtering target and cooling the molten metal at a cooling rate 5 °C/min or less, and the amount of oxygen is measured by using TC600, manufactured by LECO JAPAN CORPORATION, in conformity to an infrared absorbing method described in JIS Z 2613 "General rules for determination of oxygen in metallic materials".