mhurhangee/ep-ind-claims huggingface dataset:
A memory cell (601, 701, 801, 901) comprising: a first electrode around at least a portion of sidewalls of a mesa of dielectric material; at least one layer of resistance variable material in physical contact with the first electrode; a first, second electrode (22; 22a) in physical contact with a first portion of the at least one layer of resistance variable material, wherein the first, second electrode is associated with the first electrode to define a first memory element (600a; 700a; 800a; 900a; 1000a); and a second, second electrode (22; 22b) in physical contact with a second portion of the at least one layer of resistance variable material, wherein the second, second electrode is associated with the first electrode to define a second memory element (600b; 700b; 800b; 900b; 1000b). a first electrode around at least a portion of sidewalls of a mesa of dielectric material; at least one layer of resistance variable material in physical contact with the first electrode; a first, second electrode (22; 22a) in physical contact with a first portion of the at least one layer of resistance variable material, wherein the first, second electrode is associated with the first electrode to define a first memory element (600a; 700a; 800a; 900a; 1000a); and a second, second electrode (22; 22b) in physical contact with a second portion of the at least one layer of resistance variable material, wherein the second, second electrode is associated with the first electrode to define a second memory element (600b; 700b; 800b; 900b; 1000b).
Filter system for cleaning liquids, for example oils or fats from the food industry, having a pre-filter unit for separating particles from the liquid, having a discharge unit for the intermediate storage of the particles, which is arranged downstream of the pre-filter unit, and having a collecting chamber for the particles, which is arranged downstream of the discharge unit, wherein the discharge unit comprises at least two valves (10, 13), which are able to be actuated separately and are arranged in series, and a particle collecting volume, which is arranged between the valves, wherein a fill level sensor for determining the particle fill level is arranged in the particle collecting volume, wherein a collecting basket for collecting the particles from the particle collecting volume is arranged in the collecting chamber, wherein the pre-filter unit is situated above the discharge unit and the latter is in turn situated above the collecting chamber, with the result that the particles, following the gravitational force, pass from the pre-filter unit into the particle collecting volume in the discharge unit and, from there, further into the collecting chamber, in which the particles are collected in the collecting basket, wherein the first two valves (10, 13) are able to be switched between a closed position and an open position via in each case one actuator, wherein the discharge unit has a third valve, which is arranged between the first and second valves (10, 13) and is able to be manually switched between a closed position and an open position.
Fat composition comprising a mixture of triacylglycerols originating from a bovine milk fat source and a vegetable lipid source, said mixture being characterized by: (a) a content of butanoate groups (C4:0) of 0.5-2.8 % by weight, preferably 0.6-2.7% by weight, based on total weight of fatty acid acyl groups in TAG; (b) a wLCSFA(sn-1,3) of 18.0-35.0% by weight, preferably 19.0 to 32.0% by weight; (c) a mLCFA (sn-1,3) of 48.0-61.0 mol%, preferably 50.0-59.0 mol%; and (d) a ratio mLCFA (sn-1,3) / SFA of 0.70-1.25, preferably 0.80-1.20, wherein: - LCFA(sn-1,3) are the long chain fatty acid acyl groups having a chain length of 12 or more carbon atoms at the sn-1 and sn-3 position in TAG; - LCSFA(sn-1,3) are the long chain saturated fatty acid acyl groups having a chain length of 12 or more carbon atoms at the sn-1 and sn-3 position in TAG; - wLCSFA(sn-1,3) is the amount of LCFA(sn-1,3) in % by weight based on total weight of fatty acid acyl groups in TAG; - mLCFA(sn-1,3) is the mole fraction of LCFA(sn-1,3) based on total moles of fatty acid acyl groups in the TAG as expressed in mol%; and - SFA is the mole fraction of saturated fatty acid acyl groups in the TAG as expressed in mol%. (a) a content of butanoate groups (C4:0) of 0.5-2.8 % by weight, preferably 0.6-2.7% by weight, based on total weight of fatty acid acyl groups in TAG; (b) a wLCSFA(sn-1,3) of 18.0-35.0% by weight, preferably 19.0 to 32.0% by weight; (c) a mLCFA (sn-1,3) of 48.0-61.0 mol%, preferably 50.0-59.0 mol%; and (d) a ratio mLCFA (sn-1,3) / SFA of 0.70-1.25, preferably 0.80-1.20, - LCFA(sn-1,3) are the long chain fatty acid acyl groups having a chain length of 12 or more carbon atoms at the sn-1 and sn-3 position in TAG; - LCSFA(sn-1,3) are the long chain saturated fatty acid acyl groups having a chain length of 12 or more carbon atoms at the sn-1 and sn-3 position in TAG; - wLCSFA(sn-1,3) is the amount of LCFA(sn-1,3) in % by weight based on total weight of fatty acid acyl groups in TAG; - mLCFA(sn-1,3) is the mole fraction of LCFA(sn-1,3) based on total moles of fatty acid acyl groups in the TAG as expressed in mol%; and - SFA is the mole fraction of saturated fatty acid acyl groups in the TAG as expressed in mol%.
A rail transit braking energy recovery system, comprising a braking motor, a fuel battery, an electrolytic bath, a hydrogen tank, a control device and an energy storage device; wherein the braking motor is configured to convert braking energy of the rail transit into electric energy, and an output end of the braking motor is connected to a power input end of the electrolytic bath; the electrolytic bath comprises a hydrogen output end and an oxygen output end, the hydrogen output end being connected to the hydrogen tank, the hydrogen tank being connected to the fuel battery for supplying hydrogen to the fuel battery, the energy storage device being connected to the output end of the braking motor; the control device is configured to control a current output of the braking motor so that the current is output to the electrolytic bath or the energy storage device, characterized in further comprising: a hydrogen pressure sensor being connected to the hydrogen tank, the hydrogen pressure sensor being configured to control the braking motor to be connected to the energy storage device when it detects that the pressure within the hydrogen tank is higher than a limit value, and configured to control the braking motor to be connected to the electrolytic bath when it detects that the pressure within the hydrogen tank is not higher than the limit value. the energy storage device being connected to the output end of the braking motor; the control device is configured to control a current output of the braking motor so that the current is output to the electrolytic bath or the energy storage device, characterized in further comprising: a hydrogen pressure sensor being connected to the hydrogen tank, the hydrogen pressure sensor being configured to control the braking motor to be connected to the energy storage device when it detects that the pressure within the hydrogen tank is higher than a limit value, and configured to control the braking motor to be connected to the electrolytic bath when it detects that the pressure within the hydrogen tank is not higher than the limit value.
An oral polymeric delivery vehicle for transmucosal delivery of a bioactive agent in a mammalian subject, comprising: a bioactive agent which is encapsulated by a polymeric coating, wherein the polymeric coating comprises molecules of an alginate and transmucosal delivery enhancing molecules, said transmucosal delivery enhancing molecules comprising an isoprenoid compound, wherein the transmucosal delivery enhancing molecules are covalently conjugated to the alginate molecules and extend from the surface of the polymeric coating, wherein the polymeric delivery vehicle is resistant to degradation within the stomach and within the lumen of the small intestine, and wherein the polymeric delivery vehicle is capable of transmucosal passage across the intestinal mucosa into the intestinal bloodstream wherein the polymeric delivery vehicle comprising the alginate molecules and transmucosal delivery enhancing molecules covalently conjugated thereto is degraded to release substantially all of the bioactive agent into the intestinal bloodstream.
A gellan gum product, characterized in that the gellan gum product has double setting temperatures, wherein the double setting temperatures are: the first setting temperature in the range of 30°C-40°C, and the second setting temperature in the range of 40°C-65°C.
A communication method, the method comprising: receiving, by a user equipment, UE, a configuration of a first group of one or more downlink, DL, signals, and a configuration of a plurality of power control, PC, closed-loop adjustment states, wherein the configuration of the PC closed-loop adjustment states indicates a number of PC closed-loops, and each of the PC closed-loop adjustment states is associated with an index; receiving, by the UE, a PC configuration, wherein the PC configuration is associated with a subset of the first group and receiving, by the UE, one of indexes that the PC closed-loop adjustment states are associated with; determining, by the UE, a transmit power level in accordance with a PC closed-loop adjustment state and a pathloss, wherein the pathloss is calculated in accordance with the DL signals in the subset of the first group, and the PC closed-loop adjustment state is determined by a transmit power control, TPC, command associated with the one of the indexes; and transmitting, by the UE, a signal on a set of uplink, UL, resources at the transmit power level. receiving, by a user equipment, UE, a configuration of a first group of one or more downlink, DL, signals, and a configuration of a plurality of power control, PC, closed-loop adjustment states, wherein the configuration of the PC closed-loop adjustment states indicates a number of PC closed-loops, and each of the PC closed-loop adjustment states is associated with an index; receiving, by the UE, a PC configuration, wherein the PC configuration is associated with a subset of the first group and receiving, by the UE, one of indexes that the PC closed-loop adjustment states are associated with; determining, by the UE, a transmit power level in accordance with a PC closed-loop adjustment state and a pathloss, wherein the pathloss is calculated in accordance with the DL signals in the subset of the first group, and the PC closed-loop adjustment state is determined by a transmit power control, TPC, command associated with the one of the indexes; and transmitting, by the UE, a signal on a set of uplink, UL, resources at the transmit power level.
An air conditioner comprising: an indoor unit main body comprising a main outlet configured to discharge the air from the air conditioner, and a sub-outlet configured to discharge the air from the air conditioner, the sub-outlet having a size smaller than the main outlet; an inlet panel provided on a side of the indoor unit main body wherein an inlet (141a, 141b) configured to receive air into the air conditioner is formed in the inlet panel; a controller and a blower configured to blow the air toward the main outlet and the sub-outlet in an air cleaning mode and in a heating or cooling mode; and at least one variable air volume control device 130a, 130b, 170, 190) in an air flow path from the inlet (141a, 141b) to the main outlet or the sub-outlet; the air conditioner being characterized in that the controller is configured to adjust a second air volume flow rate in the air cleaning mode independently of a first air volume flow rate in the heating or cooling mode and to, in the air cleaning mode, control the at least one variable air volume control device 130a, 130b, 170, 190) to discharge the air through the sub-outlet and close the main outlet. an indoor unit main body comprising a main outlet configured to discharge the air from the air conditioner, and a sub-outlet configured to discharge the air from the air conditioner, the sub-outlet having a size smaller than the main outlet; an inlet panel provided on a side of the indoor unit main body wherein an inlet (141a, 141b) configured to receive air into the air conditioner is formed in the inlet panel; a controller and a blower configured to blow the air toward the main outlet and the sub-outlet in an air cleaning mode and in a heating or cooling mode; and at least one variable air volume control device 130a, 130b, 170, 190) in an air flow path from the inlet (141a, 141b) to the main outlet or the sub-outlet; the air conditioner being characterized in that the controller is configured to adjust a second air volume flow rate in the air cleaning mode independently of a first air volume flow rate in the heating or cooling mode and to, in the air cleaning mode, control the at least one variable air volume control device 130a, 130b, 170, 190) to discharge the air through the sub-outlet and close the main outlet.
Method for removing heat energy from a storage device for storing heat energy in a heating system according to one of Claims 5 to 13, comprising the following steps: a) introducing heat energy which has been obtained and/or produced by the heating system into a storage medium which is stored in a container, wherein the storage medium reaches or exceeds its vaporization temperature; b) discharging the heat energy received by the vaporous storage medium to the container by means of condensation; c) discharging the heat energy received by the container to the surroundings, characterized in that the vaporous storage medium is guided along an inner surface of the container, wherein the vaporous storage medium is guided in a targeted manner through a flow channel, which is formed between a condensation device and an intermediate wall spaced apart therefrom, and condenses on the condensation device. a) introducing heat energy which has been obtained and/or produced by the heating system into a storage medium which is stored in a container, wherein the storage medium reaches or exceeds its vaporization temperature; b) discharging the heat energy received by the vaporous storage medium to the container by means of condensation; c) discharging the heat energy received by the container to the surroundings,
A geothermal heat pipe with outer longitudinal ribs, wherein the longitudinal ribs have a rib depth between 1.5 and 0.2 mm, preferably between 1.0 and 0.3 mm, more preferably between 0.6 and 0.3 mm, wherein the ribs have a design having an approximately triangular cross section with flattened tips and a rounded base between the ribs, characterized in that the ribs are widened at the flattened ends.
Remote control device for a motor vehicle with an emitter device by means of which for remotely controlling at least one component of the motor vehicle at least one signal is to be emitted, with at least one switch by means of which through operation of the switch the emission of the signal can be brought about, and with a position-recording device by means of which an actual position of the remote control device relative to a pre-definable reference position can be determined, wherein the signal is to be emitted in dependence on the recorded actual position, and wherein the remote control device can be operated in at least two different operating modes depending on the recorded actual position, characterised in that the operating modes differ from each other in term of the way in which the switch is to be operated in order to emit the signal or to bring about a function of the components as a result of the emission.
Interface circuit for operating a motor control system for an electric motor, and in particular for an asynchronous three-phase pole-changing motor of a hoisting unit, having a first switchable contact element (6a, 7a) for generating at least two mutually differing control signals, which first switchable contact element (6a, 7a) is associated with a signal line carrying an AC voltage signal, the first switchable contact element (6a, 7a) having connected in series with it in the signal line, either upstream or downstream, an encoding diode, characterised in that a further, second, switchable contact element (6b, 7b) is arranged in parallel with the encoding diode, thus enabling three mutually differing control signals (19a, 19b, 19c) to be generated as a function of the positions of the first switchable contact element (6a, 7a) and the second switchable contact element (6b, 7b), and in that an open first switchable contact element (6a, 7a) and an open second switchable contact element (6b, 7b) generate an "OFF" signal as a control signal, a closed first switchable contact element (6a, 7a) and an open second switchable contact element (6b, 7b) generate a "HALF" signal as a control signal in the form of the onward transmission of one of the half-waves of the AC voltage signal to the signal line, and a closed first switchable contact element (6a, 7a) and a closed second switchable contact element (6b, 7b) generate an "ON" signal as a control signal in the form of the onward transmission of a full AC voltage signal to the signal line, and the electric motor takes the form of an asynchronous three-phase pole-changing motor.
A stackable container comprising a receiving body having at least one bottom and a receiving space defined by the bottom and a lateral wall, wherein the receiving body comprises movably arranged stacking elements, and wherein the stacking elements are at least be movable from a first position into a second position, wherein the stacking elements allow stacking of at least two stackable containers of this type one inside the other in the first position and one on top of the other in the second position, wherein the receiving body comprises at least one drainage opening in the region of the bottom, wherein the bottom of the receiving body is configured to receive the moisture and/or liquid present in the receiving space, and to guide the received moisture and/or liquid in the direction of the at least one drainage opening, wherein at least one of the stacking elements comprises a drainage channel, which is configured to receive and to drain moisture and/or liquid, characterized in that the stacking elements further comprise a passage opening communicatively connected to the drainage channel for the targeted guidance of the liquid collected in the drainage channel from a first side of the stacking elements to an opposite second side of the stacking elements.
Braking apparatus which is actuated by pressure medium for vehicles having a first braking element which can be actuated by the pressure medium and a second braking element which can be actuated by the pressure medium, having a first braking circuit with a pressure medium reservoir, which braking circuit can be connected to the first braking element via at least one connecting line (22, 24), in order to actuate the braking element by way of the pressure medium via the said connecting line (22, 24), and a second braking circuit which can be connected to the second braking element via at least one connecting line (22, 24), in order to actuate the second braking element by way of the pressure medium via the said connecting line (22, 24), the braking apparatus having a first control valve device, via which the first braking element can be connected both to the first braking circuit and to the second braking circuit, and a second control valve device, via which the second braking element can be connected both to the first braking circuit and to the second braking circuit; characterized in that a further valve device (18, 19) is arranged between at least one control valve device (8, 9) and the braking element (6, 7) which is assigned to it, and at least one control valve device (8, 9) is configured, with the further valve device (18, 19) which is assigned to it, as a structural unit.
An air-conditioning apparatus comprising: a refrigerating cycle comprising a compressor, an outdoor heat exchanger, flow-control valves and indoor heat exchangers; an outdoor unit including the compressor and the outdoor heat exchanger; indoor units (B1 to B6) including the indoor heat exchangers and the flow-control valves, respectively, wherein each of the indoor units (B1 to B6) comprises an air inlet, at least one air outlet and at least one louver configured to open and close the air outlet, and is configured to allow air drawn from the air inlet to flow through the indoor heat exchanger and discharge the air from the indoor heat exchanger to the air outlet; an outdoor controller configured to control operation of the compressor and to execute oil recovery control by returning a refrigerant discharged from the compressor to the compressor through the outdoor heat exchanger, the flow-control valves and the indoor heat exchangers; characterized in that it further comprises backup power supply units (41 to 46) configured to output backup power to the indoor units (B1 to B6), respectively, when power supply from a main power supply to the indoor units (B1 to B6) is shut down; and indoor controllers provided in the indoor units (B1 to B6), respectively, configured to operate by the power supply from the main power supply or output from the respective backup power supply units (41 to 46), and configured to control operation of the respective indoor units (B1 to B6), wherein when the power supply from the main power supply to the indoor units (B1 to B6) is shut down, the indoor controllers open the respective louvers by the output of the respective backup power supply units (41 to 46). a refrigerating cycle comprising a compressor, an outdoor heat exchanger, flow-control valves and indoor heat exchangers; an outdoor unit including the compressor and the outdoor heat exchanger; indoor units (B1 to B6) including the indoor heat exchangers and the flow-control valves, respectively, wherein each of the indoor units (B1 to B6) comprises an air inlet, at least one air outlet and at least one louver configured to open and close the air outlet, and is configured to allow air drawn from the air inlet to flow through the indoor heat exchanger and discharge the air from the indoor heat exchanger to the air outlet; an outdoor controller configured to control operation of the compressor and to execute oil recovery control by returning a refrigerant discharged from the compressor to the compressor through the outdoor heat exchanger, the flow-control valves and the indoor heat exchangers;
Electric motor-driven kitchen appliance, in particular a food processor, having at least one coupling point for a plurality of tools for processing foodstuffs, wherein the kitchen appliance comprises a storage facility made from a flexible material for the plurality of tools, wherein the flexible material is a textile material, wherein the kitchen appliance comprises a processing bowl for holding foodstuffs to be processed, wherein the storage facility is configured so that it can be stored in the processing bowl, characterised in that the storage facility has at least one closable compartment (21a, 21b) for tools and the at least one compartment can be closed by means of a zipper.