mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical injection device, comprising: a main body case having a pharmaceutical syringe attachment component on its distal end side; the pharmaceutical syringe attachment component having an inner case ; a distal end cap that can be removably attached to the distal end side of the main body case ; a first driver that is configured to move a pharmaceutical syringe unit attached to the pharmaceutical syringe attachment component to the distal end side along with the pharmaceutical syringe attachment component , so that an injection needle of a needle unit attached to the distal end part of the pharmaceutical syringe unit pierces the skin, or the rear side along with the pharmaceutical syringe attachment component ; a second driver that is configured to move a gasket of a pharmaceutical syringe constituting the pharmaceutical syringe unit to the distal end side, so that the pharmaceutical inside the pharmaceutical syringe is injected through the injection needle into the body; the first driver and the second driver being an electrical motor; and an operating state detector that detects the operating state of the first driver ; characterized in that the pharmaceutical injection device further comprises a controller that, during pharmaceutical injection, can execute a simple pharmaceutical injection mode in which only the second driver is actuated when the operating state detector (1018. 1019) has detected that the first driver is not operating properly and the distal end cap is removed. a main body case having a pharmaceutical syringe attachment component on its distal end side; the pharmaceutical syringe attachment component having an inner case ; a distal end cap that can be removably attached to the distal end side of the main body case ; a first driver that is configured to move a pharmaceutical syringe unit attached to the pharmaceutical syringe attachment component to the distal end side along with the pharmaceutical syringe attachment component , so that an injection needle of a needle unit attached to the distal end part of the pharmaceutical syringe unit pierces the skin, or the rear side along with the pharmaceutical syringe attachment component ; a second driver that is configured to move a gasket of a pharmaceutical syringe constituting the pharmaceutical syringe unit to the distal end side, so that the pharmaceutical inside the pharmaceutical syringe is injected through the injection needle into the body; the first driver and the second driver being an electrical motor; and an operating state detector that detects the operating state of the first driver ; characterized in that the pharmaceutical injection device further comprises a controller that, during pharmaceutical injection, can execute a simple pharmaceutical injection mode in which only the second driver is actuated when the operating state detector (1018. 1019) has detected that the first driver is not operating properly and the distal end cap is removed.
An ex vivo method of modulating gamma variable 4 (Vy4) T cells comprising administering to a cell population comprising Vγ4 T cells an anti-Vy4 antibody or fragment thereof comprising: (a) a VH comprising a HCDR1 having SEQ ID NO: 79, a HCDR2 having SEQ ID NO: 56 and a HCDR3 having SEQ ID NO: 10; and (b) a VL comprising a LCDR1 having SEQ ID NO: 102, a LCDR2 having SEQUENCE A9 (of Figure 1) and a LCDR3 having SEQ ID NO: 33. (a) a VH comprising a HCDR1 having SEQ ID NO: 79, a HCDR2 having SEQ ID NO: 56 and a HCDR3 having SEQ ID NO: 10; and (b) a VL comprising a LCDR1 having SEQ ID NO: 102, a LCDR2 having SEQUENCE A9 (of Figure 1) and a LCDR3 having SEQ ID NO: 33.
A method of wrapping a load with packaging material , the method comprising: providing relative rotation between a load support and a packaging material dispenser about a center of rotation to dispense packaging material to the load ; controlling a dispense rate of the packaging material dispenser based at least in part on a geometric relationship between the packaging material dispenser and a current corner (C1, C2, C3, C4) of the load to which the packaging material is currently engaging during the relative rotation; wherein the method is characterized by : determining when the packaging material will engage a next corner (C1, C2, C3, C4) of the load by determining an angular relationship between the load and the packaging material dispenser about the center of rotation when the packaging material first contacts the next corner (C1, C2, C3, C4); and controlling the dispense rate based at least in part on a geometric relationship between the packaging material dispenser and the next corner (C1, C2, C3, C4) of the load after the packaging material engages the next corner (C1, C2, C3, C4) of the load. providing relative rotation between a load support and a packaging material dispenser about a center of rotation to dispense packaging material to the load ; controlling a dispense rate of the packaging material dispenser based at least in part on a geometric relationship between the packaging material dispenser and a current corner (C1, C2, C3, C4) of the load to which the packaging material is currently engaging during the relative rotation; wherein the method is characterized by : determining when the packaging material will engage a next corner (C1, C2, C3, C4) of the load by determining an angular relationship between the load and the packaging material dispenser about the center of rotation when the packaging material first contacts the next corner (C1, C2, C3, C4); and controlling the dispense rate based at least in part on a geometric relationship between the packaging material dispenser and the next corner (C1, C2, C3, C4) of the load after the packaging material engages the next corner (C1, C2, C3, C4) of the load.
An electrical strip or electrical sheet with at least one heat-hardening hotmelt varnish, namely a baked enamel layer, provided on its flat sides, which has an epoxy resin base, at least one hardener, and at least one filler, characterized in that the filler of the baked enamel layer contains a metal carbonate, sulfate, sulfide, silicate, or phosphate or any mix of a plurality of these.
A method of operating a network controller (150; 1000; 1600) for a satellite communications system , the method comprising: receiving a reverse-link data communication from a user terminal (400; 401; 1700) via a first beam of a satellite; performing an inter-beam handover by switching communications with the user terminal (400; 401; 1700) from the first beam to a second beam of the satellite ; generating a reverse-link grant message based on the reverse-link data communication, the reverse-link grant message comprising a request for retransmission of data transmitted via the first beam prior to the inter-beam handover; transmitting the reverse-link grant message to the user terminal (400; 401; 1700) via the second beam after the inter-beam handover is completed; and receiving retransmitted data from the user terminal via the second beam as a new transmission in response to the request. receiving a reverse-link data communication from a user terminal (400; 401; 1700) via a first beam of a satellite; performing an inter-beam handover by switching communications with the user terminal (400; 401; 1700) from the first beam to a second beam of the satellite ; generating a reverse-link grant message based on the reverse-link data communication, the reverse-link grant message comprising a request for retransmission of data transmitted via the first beam prior to the inter-beam handover; transmitting the reverse-link grant message to the user terminal (400; 401; 1700) via the second beam after the inter-beam handover is completed; and receiving retransmitted data from the user terminal via the second beam as a new transmission in response to the request.
A method for extraction of saccharides from a lignocellulose-containing material, comprising the steps of: mixing the lignocellulose-containing material with an acidic water solution to create a slurry having a pH value in the interval of 0-4; controlling the water content of the slurry to obtain a specific dry solid content of the slurry; and introducing the slurry into an apparatus and performing an acid hydrolysis of the slurry in the apparatus, wherein the specific dry solid content of the slurry is more than 30 % and wherein at least parts of the apparatus that come into contact with the slurry are made of a material that comprises iron in an amount of at least 50 % by weight and nickel in an amount of at least 1.5 % by weight, and characterized by controlling the water content of the slurry comprising determining, using a detector, the water content of the slurry and controlling, using a controller, the water content of the slurry in response to a determined water content. mixing the lignocellulose-containing material with an acidic water solution to create a slurry having a pH value in the interval of 0-4; controlling the water content of the slurry to obtain a specific dry solid content of the slurry; and introducing the slurry into an apparatus and performing an acid hydrolysis of the slurry in the apparatus,
A capacitor module (10-2), in particular for use in an inverter of an electrical or a hybrid vehicle, said capacitor module (10-2) comprising a housing , at least one capacitor element mounted in said housing and at least one busbar at least partially mounted into said housing and being electrically connected to said capacitor element , the housing comprising a bottom wall , a side wall and an upper wall , characterized in that said upper wall comprises a peripheral portion made of a sealing material and a central portion made of a thermal dissipation material, the thermal conductivity of the thermal dissipation material being bigger than the thermal conductivity of the sealing material.
Method for testing a component to be additively produced, comprising the following steps: - mechanically exciting at least one additively constructed layer of the component together with a component substrate during an additive production of the component on the component substrate, - measuring a mechanical response signal of the component wherein a characteristic frequency spectrum, for example for resonance or oscillation analysis, of the component is used for the mechanical excitation and the measurement of the mechanical response signal, and - displaying a warning and/or carrying out a termination of the additive production of the component if the mechanical response signal lies outside a predetermined tolerance range, wherein the mechanical response signal is compared to a simulated or computed value for the display of the warning and/or the carrying out of the termination, and wherein the mechanical response signal is compared to a mechanical response signal of at least one previously additively constructed layer for the display of the warning and/or the carrying out of the termination, wherein the warning is displayed if the mechanical response signal lies outside a first predetermined tolerance range and wherein the termination of the additive production of the component is carried out if the mechanical response signal lies outside a second predetermined tolerance range and wherein the second predetermined tolerance range is greater than the first predetermined tolerance range. - mechanically exciting at least one additively constructed layer of the component together with a component substrate during an additive production of the component on the component substrate, - measuring a mechanical response signal of the component wherein a characteristic frequency spectrum, for example for resonance or oscillation analysis, of the component is used for the mechanical excitation and the measurement of the mechanical response signal, and - displaying a warning and/or carrying out a termination of the additive production of the component if the mechanical response signal lies outside a predetermined tolerance range, wherein the mechanical response signal is compared to a simulated or computed value for the display of the warning and/or the carrying out of the termination, and wherein the mechanical response signal is compared to a mechanical response signal of at least one previously additively constructed layer for the display of the warning and/or the carrying out of the termination, wherein the warning is displayed if the mechanical response signal lies outside a first predetermined tolerance range and wherein the termination of the additive production of the component is carried out if the mechanical response signal lies outside a second predetermined tolerance range and wherein the second predetermined tolerance range is greater than the first predetermined tolerance range.
Switchable cylindrical charge of a warhead, having a tubular holder (H) which comprises two portions (T1, T2) arranged inside one another and relocatable in relation to one another, each of which has a plurality of through-holes (A) whose preferred direction is approximately perpendicular in relation to the inner or outer surface of the holder and which have a width of opening in a range of 3 mm to 10 mm, wherein the holder (H) which is filled with explosive charge (HE) is arranged inside a fragmenting sleeve (HU) of the warhead, wherein the holder consists of a material damping the detonation front, wherein at least two ignition devices (ZK1, ZK2) are arranged in the charge in the region of the longitudinal axis (L) of the charge, wherein the through-holes (A) are free of explosive charge, and wherein the holder (H) is in form-fitting contact with the inner face of the sleeve (HU).
A method for controlling an inverter-based resource having a power converter connected to an electrical grid, the inverter-based resource comprising a wind turbine power system having at least one doubly-fed induction generator , DFIG, connectable to the electrical grid, the wind turbine power system being part of a wind farm comprising a farm-level controller , the method is characterised by comprising: receiving , via a controller comprising at least one of a turbine controller and a converter controller of the wind turbine power system , a first power limit signal (Power_Limit_1) for the inverter-based resource from the farm-level controller ; receiving , via a local power constraint module of the controller , a second power limit signal (Power_Limit_2) for the inverter-based resource; determining , via the controller , a constrained power limit signal based on the first and second power limit signals (Power_Limit_1, Power_Limit_2); applying , via the controller , a first frequency droop function to the constrained power limit signal ; determining , via a maximum power tracking algorithm of the controller , at least one of a power reference signal (Power_ref) and a pitch reference signal for the inverter-based resource as a function of an output of the first frequency droop function and the constrained power limit signal ; determining , via the controller , one or more control commands (PregACTUATOR) for the inverter-based resource based on at least one of the power reference signal (POWER_Ref) and the pitch reference signal; and controlling , via the controller , the inverter-based resource based on the one or more control commands (PregACTUATOR) so as to support a grid frequency of the electrical grid within power available at the inverter-based resource . receiving , via a controller comprising at least one of a turbine controller and a converter controller of the wind turbine power system , a first power limit signal (Power_Limit_1) for the inverter-based resource from the farm-level controller ; receiving , via a local power constraint module of the controller , a second power limit signal (Power_Limit_2) for the inverter-based resource; determining , via the controller , a constrained power limit signal based on the first and second power limit signals (Power_Limit_1, Power_Limit_2); applying , via the controller , a first frequency droop function to the constrained power limit signal ; determining , via a maximum power tracking algorithm of the controller , at least one of a power reference signal (Power_ref) and a pitch reference signal for the inverter-based resource as a function of an output of the first frequency droop function and the constrained power limit signal ; determining , via the controller , one or more control commands (PregACTUATOR) for the inverter-based resource based on at least one of the power reference signal (POWER_Ref) and the pitch reference signal; and controlling , via the controller , the inverter-based resource based on the one or more control commands (PregACTUATOR) so as to support a grid frequency of the electrical grid within power available at the inverter-based resource .
A vacuum cleaner comprising: a cleaner body ; a suction hose mounted at a front side of the cleaner body to suck in dust; a handle connected to the suction hose ; a distance sensor for sensing a distance between the handle and the cleaner body ; moving wheels provided at both sides of the cleaner body , rotating to move the cleaner body , and rotatably supporting the cleaner body ; wheel motors connected to the moving wheels and rotating the moving wheels ; and a controller configured to control the wheel motors further based on the distance sensed by the distance sensor , characterized in that the vacuum cleaner further comprises: a detecting part provided in the cleaner body and sensing an inclination angle of the cleaner body to determine whether the cleaner is moving or stops; and a plurality of obstacle detecting members provided at a front side of the cleaner body and located at both sides relative to the suction hose to detect an obstacle, wherein the controller is configured to control the wheel motors based on signals detected by the detecting part and the plurality of obstacle detecting members , wherein a center of gravity of the cleaner body is located at a rear side further than the rotating center of the moving wheel . a cleaner body ; a suction hose mounted at a front side of the cleaner body to suck in dust; a handle connected to the suction hose ; a distance sensor for sensing a distance between the handle and the cleaner body ; moving wheels provided at both sides of the cleaner body , rotating to move the cleaner body , and rotatably supporting the cleaner body ; wheel motors connected to the moving wheels and rotating the moving wheels ; and a controller configured to control the wheel motors further based on the distance sensed by the distance sensor , characterized in that the vacuum cleaner further comprises: a detecting part provided in the cleaner body and sensing an inclination angle of the cleaner body to determine whether the cleaner is moving or stops; and a plurality of obstacle detecting members provided at a front side of the cleaner body and located at both sides relative to the suction hose to detect an obstacle, wherein the controller is configured to control the wheel motors based on signals detected by the detecting part and the plurality of obstacle detecting members , wherein a center of gravity of the cleaner body is located at a rear side further than the rotating center of the moving wheel . a detecting part provided in the cleaner body and sensing an inclination angle of the cleaner body to determine whether the cleaner is moving or stops; and a plurality of obstacle detecting members provided at a front side of the cleaner body and located at both sides relative to the suction hose to detect an obstacle, wherein the controller is configured to control the wheel motors based on signals detected by the detecting part and the plurality of obstacle detecting members , wherein a center of gravity of the cleaner body is located at a rear side further than the rotating center of the moving wheel .
An electric transformer insulating film comprising a wholly aromatic liquid crystalline polyester resin compound comprising: a wholly aromatic liquid crystalline polyester resin; a first inorganic filler having a surface resistivity of 10 13 Ω/sq or more, wherein the first inorganic filler comprises at least one selected from the group consisting of mica, talc, and wollastonite, and wherein an amount of the first inorganic filler is from 5 to 40 parts by weight based on 100 parts by weight of the wholly aromatic liquid crystalline polyester resin; and a second inorganic filler having a surface resistivity of 10 13 Ω/sq or more and higher heat resistance (ASTM D648) and mechanical strength than those of the first inorganic filler, wherein the second inorganic filler comprises at least one selected from the group consisting of a long glass fiber, a short glass fiber, and whisker, and wherein an amount of the second inorganic filler is from 5 to 40 parts by weight based on 100 parts by weight of the wholly aromatic liquid crystalline polyester resin; wherein the wholly aromatic liquid crystalline polyester resin compound has an arc resistance grade (ASTM D495) of 3 grade or lower and a heat resistance (ASTM D 648) of 250°C or more. a wholly aromatic liquid crystalline polyester resin; a first inorganic filler having a surface resistivity of 10 13 Ω/sq or more, wherein the first inorganic filler comprises at least one selected from the group consisting of mica, talc, and wollastonite, and wherein an amount of the first inorganic filler is from 5 to 40 parts by weight based on 100 parts by weight of the wholly aromatic liquid crystalline polyester resin; and a second inorganic filler having a surface resistivity of 10 13 Ω/sq or more and higher heat resistance (ASTM D648) and mechanical strength than those of the first inorganic filler, wherein the second inorganic filler comprises at least one selected from the group consisting of a long glass fiber, a short glass fiber, and whisker, and wherein an amount of the second inorganic filler is from 5 to 40 parts by weight based on 100 parts by weight of the wholly aromatic liquid crystalline polyester resin; wherein the wholly aromatic liquid crystalline polyester resin compound has an arc resistance grade (ASTM D495) of 3 grade or lower and a heat resistance (ASTM D 648) of 250°C or more.