mhurhangee/ep-ind-claims huggingface dataset:
A cooking apparatus, comprising: a control unit, comprising: a reservoir configured to hold a heat transfer liquid and comprising a heating element; a temperature controller connected to said heating element and adapted to control a temperature of said heat transfer liquid in said reservoir; a fluid outflow port in fluid communication with said reservoir; and a fluid return port in fluid communication with said reservoir; and a dual-chamber container, comprising: an inner flexible bag formed with an internal chamber for holding food to be cooked; an outer flexible bag formed with an internal chamber for holding said inner flexible bag; a fluid inlet port in fluid communication with said internal chamber in said outer flexible bag and not in fluid communication with said internal chamber in said inner flexible bag; and a fluid outflow port in fluid communication with said internal chamber in said outer flexible bag and not in fluid communication with said internal chamber in said inner flexible bag; wherein said fluid inlet port on said dual-chamber container is adapted for fluid communication with said fluid outflow port on said control unit and said fluid outflow port on said dual-chamber container is adapted for fluid communication with said fluid return port on said control unit. a control unit, comprising: a reservoir configured to hold a heat transfer liquid and comprising a heating element; a temperature controller connected to said heating element and adapted to control a temperature of said heat transfer liquid in said reservoir; a fluid outflow port in fluid communication with said reservoir; and a fluid return port in fluid communication with said reservoir; and a reservoir configured to hold a heat transfer liquid and comprising a heating element; a temperature controller connected to said heating element and adapted to control a temperature of said heat transfer liquid in said reservoir; a fluid outflow port in fluid communication with said reservoir; and a fluid return port in fluid communication with said reservoir; and a dual-chamber container, comprising: an inner flexible bag formed with an internal chamber for holding food to be cooked; an outer flexible bag formed with an internal chamber for holding said inner flexible bag; a fluid inlet port in fluid communication with said internal chamber in said outer flexible bag and not in fluid communication with said internal chamber in said inner flexible bag; and a fluid outflow port in fluid communication with said internal chamber in said outer flexible bag and not in fluid communication with said internal chamber in said inner flexible bag; an inner flexible bag formed with an internal chamber for holding food to be cooked; an outer flexible bag formed with an internal chamber for holding said inner flexible bag; a fluid inlet port in fluid communication with said internal chamber in said outer flexible bag and not in fluid communication with said internal chamber in said inner flexible bag; and a fluid outflow port in fluid communication with said internal chamber in said outer flexible bag and not in fluid communication with said internal chamber in said inner flexible bag;
Device for dynamically stabilizing the transmission of energy via an electrical line when fluctuations in the active power flow arise, wherein a) a first AC voltage with a first voltage angle is present at a first point on the line, b) a second AC voltage with a second voltage angle is present at a second point on the line, as seen in the direction of the transmission of energy, and c) the fluctuations in the active power flow correlate with the fluctuations in the voltage angle difference between the two points (2, 3) on the line, wherein a series transformer is present, the primary winding of which is coupled to the line at a coupling point that is between the first and second point (2, 3), a converter (SVC+) is connected to the secondary winding of the series transformer and has a DC circuit with an energy store, and the converter (SVC+) couples a respective counteracting third AC voltage (Vs) with a third voltage angle (ds) into the line via the series transformer with charging and discharging of the energy store for compensation purposes, characterized in that the converter (SVC+) is designed as a modular multi-level converter, and the modules of the multi-level converter are designed as full-bridge modules and are electrically connected in series. a) a first AC voltage with a first voltage angle is present at a first point on the line, b) a second AC voltage with a second voltage angle is present at a second point on the line, as seen in the direction of the transmission of energy, and c) the fluctuations in the active power flow correlate with the fluctuations in the voltage angle difference between the two points (2, 3) on the line, wherein a series transformer is present, the primary winding of which is coupled to the line at a coupling point that is between the first and second point (2, 3), a converter (SVC+) is connected to the secondary winding of the series transformer and has a DC circuit with an energy store, and the converter (SVC+) couples a respective counteracting third AC voltage (Vs) with a third voltage angle (ds) into the line via the series transformer with charging and discharging of the energy store for compensation purposes, characterized in that the converter (SVC+) is designed as a modular multi-level converter, and the modules of the multi-level converter are designed as full-bridge modules and are electrically connected in series.
Product carrier for dough products for use in a proofing cabinet, comprising a flat carrier plate having an upper side for carrying dough products thereon, and a frame surrounding the carrier plate, wherein an outer edge of the frame projects beyond an outer circumferential edge of the carrier plate, wherein the upper side of the carrier plate projects at a distance above an upper side of the frame, wherein the upper side of the frame comprises an edge extending to within the perimeter of the carrier plate, wherein the edge (231,) of the upper side of the frame is inserted in a groove in a circumferential side of the carrier plate, and wherein the frame extends at least partially underneath the bottom wall of the carrier plate.
A control device to control a plurality of air conditioners that are placed in a space so as to adjoin, characterized in that the control device comprises: a designation unit to designate an air conditioner being placed in an area in the space where presence of any person is detected, as a first air conditioner, and to designate an air conditioner being placed adjacent to the first air conditioner and being placed in an area in the space where presence of any person is not detected, as a second air conditioner, among the plurality of air conditioners; and a control unit to cause the first air conditioner to carry out either of cooling operation and heating operation as air conditioning operation, and to cause the second air conditioner to carry out air blowing operation with an air volume in a range between ±10% and ±30% of an air volume of the air conditioning operation by the first air conditioner and with a same wind direction as a wind direction of the air conditioning operation by the first air conditioner. a designation unit to designate an air conditioner being placed in an area in the space where presence of any person is detected, as a first air conditioner, and to designate an air conditioner being placed adjacent to the first air conditioner and being placed in an area in the space where presence of any person is not detected, as a second air conditioner, among the plurality of air conditioners; and a control unit to cause the first air conditioner to carry out either of cooling operation and heating operation as air conditioning operation, and to cause the second air conditioner to carry out air blowing operation with an air volume in a range between ±10% and ±30% of an air volume of the air conditioning operation by the first air conditioner and with a same wind direction as a wind direction of the air conditioning operation by the first air conditioner.
Porous particles having a substantially spherical shape wherein each of the porous particle is shaped so that the longest diameter is not more than 1.6 times the shortest diameter, wherein the porous particles are made of an organic polymer, each of the porous particles has an interconnected pore structure in which through holes provided inside the porous particle communicate with each other and have a co-continuous structure, the through holes are formed by spinodal decomposition, and ends of the through holes are open toward an outside of the porous particle.
A class-D amplifier, comprising: a first combiner operable to combine a digital input signal and a digital feedback signal (332/524) to generate a first combined signal; a digital loop operable to receive the first combined signal and to generate a digital pulse-width modulated signal (324/514) based thereon and to provide the PWM signal as a first component of the digital feedback signal; an output stage (306/504) operable to receive the digital PWM signal and to generate an analog output signal (328/516) for driving a load responsive to the digital PWM signal; and a feedback circuit (334/526) comprising a digital to analog converter operable to convert the digital PWM signal to an analog PWM signal, a second combiner operable to combine the analog PWM signal and the analog output signal to generate a second combined signal, and an analog to digital converter operable to convert the second combined signal to a digital form to generate a second component of the digital feedback signal. a first combiner operable to combine a digital input signal and a digital feedback signal (332/524) to generate a first combined signal; a digital loop operable to receive the first combined signal and to generate a digital pulse-width modulated signal (324/514) based thereon and to provide the PWM signal as a first component of the digital feedback signal; an output stage (306/504) operable to receive the digital PWM signal and to generate an analog output signal (328/516) for driving a load responsive to the digital PWM signal; and a feedback circuit (334/526) comprising a digital to analog converter operable to convert the digital PWM signal to an analog PWM signal, a second combiner operable to combine the analog PWM signal and the analog output signal to generate a second combined signal, and an analog to digital converter operable to convert the second combined signal to a digital form to generate a second component of the digital feedback signal. a digital to analog converter operable to convert the digital PWM signal to an analog PWM signal, a second combiner operable to combine the analog PWM signal and the analog output signal to generate a second combined signal, and an analog to digital converter operable to convert the second combined signal to a digital form to generate a second component of the digital feedback signal.
A wind power generation apparatus which comprises: a generator comprising a magnet and an armature winding and having a windmill rotating blade; and a switch unit (40-1, 40-2, 40-3) for controlling the rotational speed of the windmill rotating blade by short-circuiting the armature winding at controlled duty cycles; and a control unit which, in use, when an inverter is connected as a load, controls and maintains the rotational speed of the windmill rotating blade at a predetermined value by the switch unit (40-1, 40-2, 40-3) short-circuiting the armature winding at controlled duty cycles; characterized by a shunt unit (31, 32, 33) for controlling an output voltage of the generator by intermittently connecting a resistor to an output of the generator; and said control unit, before the inverter is turned on, intermittently connects the resistor to the output of the generator to prevent a voltage that is too high, being applied to the inverter and, after the inverter is turned on, using the switch unit (40-1, 40-2, 40-3) to control the rotational speed of the windmill rotating blade to maintain a constant voltage applied to the inverter. a generator comprising a magnet and an armature winding and having a windmill rotating blade; and a switch unit (40-1, 40-2, 40-3) for controlling the rotational speed of the windmill rotating blade by short-circuiting the armature winding at controlled duty cycles; and a control unit which, in use, when an inverter is connected as a load, controls and maintains the rotational speed of the windmill rotating blade at a predetermined value by the switch unit (40-1, 40-2, 40-3) short-circuiting the armature winding at controlled duty cycles; characterized by a shunt unit (31, 32, 33) for controlling an output voltage of the generator by intermittently connecting a resistor to an output of the generator; and said control unit, before the inverter is turned on, intermittently connects the resistor to the output of the generator to prevent a voltage that is too high, being applied to the inverter and, after the inverter is turned on, using the switch unit (40-1, 40-2, 40-3) to control the rotational speed of the windmill rotating blade to maintain a constant voltage applied to the inverter.
A computing system, comprising: a graphics processing unit; and main processing circuitry operative to execute a set of computer program instructions to form: a hypervisor operative to virtualize hardware of the computing system; a control virtual machine; and a rendering virtual machine, the control virtual machine being operative to manage the rendering virtual machine and a guest virtual machine, the guest virtual machine including an application program generating graphics information, the rendering virtual machine including a graphics driver native to the graphics processing unit and being assigned pass-through access to the graphics processing unit by the control virtual machine, the rendering virtual machine being operative to i) receive the graphics information from the application program via an inter-virtual-machine communication channel, ii) provide the received graphics information to the graphics driver, and iii) use the graphics driver to control operation of the graphics processing unit to perform graphics rendering operations based on the graphics information. a graphics processing unit; and main processing circuitry operative to execute a set of computer program instructions to form: a hypervisor operative to virtualize hardware of the computing system; a control virtual machine; and a rendering virtual machine, the control virtual machine being operative to manage the rendering virtual machine and a guest virtual machine, the guest virtual machine including an application program generating graphics information, the rendering virtual machine including a graphics driver native to the graphics processing unit and being assigned pass-through access to the graphics processing unit by the control virtual machine, the rendering virtual machine being operative to i) receive the graphics information from the application program via an inter-virtual-machine communication channel, ii) provide the received graphics information to the graphics driver, and iii) use the graphics driver to control operation of the graphics processing unit to perform graphics rendering operations based on the graphics information. a hypervisor operative to virtualize hardware of the computing system; a control virtual machine; and a rendering virtual machine, the control virtual machine being operative to manage the rendering virtual machine and a guest virtual machine, the guest virtual machine including an application program generating graphics information, the rendering virtual machine including a graphics driver native to the graphics processing unit and being assigned pass-through access to the graphics processing unit by the control virtual machine, the rendering virtual machine being operative to i) receive the graphics information from the application program via an inter-virtual-machine communication channel, ii) provide the received graphics information to the graphics driver, and iii) use the graphics driver to control operation of the graphics processing unit to perform graphics rendering operations based on the graphics information.
Adaptive inflatable cushion, in particular designed to be located at the base of a seat or seating area comprising a flexible main base, having a plurality of inflatable cells, arranged in a matrix that protrudes in an upward direction, and inflating means, including pressure regulating means operated by a programmable control unit that is associated with inflating means, such that a plurality of separate regions each defined by one or more inflatable cells having pressure values equal to or different from each other are defined in the flexible main base, in that the pressure regulating means comprises a plurality of secondary conduits relative to the various separate regions that branch from a main conduit coupled to the inflating means, each one of the secondary conduits associated with at least one solenoid valve and a pressure sensor being electrically connected with the programmable control unit, characterized in that each of the secondary conduits is linked to two solenoid valves, one of the solenoid valves being associated with an air passage and the other solenoid valve associated with air extraction.
An indirect rear viewing system for a motor vehicle comprising a supporting element for fastening at least one reflective element, wherein the carrying element has a coupling region for a position-variable fastening / attachment to an adjusting element which in turn can be attached to the vehicle, wherein the coupling region contacts a counter contact region of the adjusting element, interlocking anti-rotation means being present on the supporting element and on the adjusting element, characterized in that the anti-rotation means form an index geometry, which in a first operating state permits an adjustment of the supporting element relative to the adjusting element about two axes of rotation (25, 26), which are transverse to one another, and in at least a second operating state permits a basic position change of the supporting element relative to the adjusting element about a third axis of rotation, which is aligned transversely to the other two axes of rotation (25, 26).
A method for managing a production change in a building line for at least one tyre component, said building line having a predefined cycle time, and said component being produced on a forming drum comprising a central body on which a first outer body is fitted to define a forming surface on which said at least one tyre component is produced, wherein there is provision for: - separating said at least one component from said forming drum in a final work station of said building line; - modifying the forming surface of said forming drum by replacing, on said central body, said first outer body with a second outer body different from said first outer body; - moving said forming drum comprising said second outer body to an initial work station of said building line, characterised in that the central body is radially expansible, and said first outer body is replaced on said central body with said second outer body in a period of time equal to or less than the said cycle time and in that said replacing comprises the separation of said first outer body from said central body, said separation including: - holding said first outer body by means of a first outer-body support member when said central body is in a radially expanded condition; and - contracting said central body radially so as to separate said first outer body and said central body. - separating said at least one component from said forming drum in a final work station of said building line; - modifying the forming surface of said forming drum by replacing, on said central body, said first outer body with a second outer body different from said first outer body; - moving said forming drum comprising said second outer body to an initial work station of said building line, - holding said first outer body by means of a first outer-body support member when said central body is in a radially expanded condition; and - contracting said central body radially so as to separate said first outer body and said central body.
Inhibitor of a Slo3 potassium channel for use in increasing the lifespan of animal sperm, wherein said inhibitor is contacted in vivo with said animal sperm and said animal sperm is not human sperm.
A fiber battery fabrication method comprising the steps of: (a) obtaining a fiber positive electrode by forming a positive electrode active material coating on a single fiber having a diameter of 0.1 to 100 μm, and obtaining a fiber negative electrode by forming a negative electrode active material coating on a single fiber having a diameter of 0.1 to 100 μm; (b) forming a separator coating on the fiber positive electrode and/or the fiber negative electrode; (c) alternately and vertically stacking the fiber positive electrodes and the fiber negative electrodes, either or both of which are coated with the separator coating; (d) vertically press-forming and cutting a stack of the fiber positive electrodes and the fiber negative electrodes, with horizontal end positions of the fiber positive electrodes and horizontal end positions of the fiber negative electrodes being displaced from each other, to obtain an electrode stack so that the fiber positive electrodes protrude from one end of the electrode stack and the fiber negative electrodes protrude from the other end of the electrode stack; (e) forming a positive electrode terminal on the protruding fiber positive electrodes; and (f) forming a negative electrode terminal on the protruding fiber negative electrodes. (a) obtaining a fiber positive electrode by forming a positive electrode active material coating on a single fiber having a diameter of 0.1 to 100 μm, and obtaining a fiber negative electrode by forming a negative electrode active material coating on a single fiber having a diameter of 0.1 to 100 μm; (b) forming a separator coating on the fiber positive electrode and/or the fiber negative electrode; (c) alternately and vertically stacking the fiber positive electrodes and the fiber negative electrodes, either or both of which are coated with the separator coating; (d) vertically press-forming and cutting a stack of the fiber positive electrodes and the fiber negative electrodes, with horizontal end positions of the fiber positive electrodes and horizontal end positions of the fiber negative electrodes being displaced from each other, to obtain an electrode stack so that the fiber positive electrodes protrude from one end of the electrode stack and the fiber negative electrodes protrude from the other end of the electrode stack; (e) forming a positive electrode terminal on the protruding fiber positive electrodes; and (f) forming a negative electrode terminal on the protruding fiber negative electrodes.