mhurhangee/ep-ind-claims huggingface dataset:
A dehumidifier comprising: a main body case that defines an inner space and is provided at a side with an external air inlet; a barrier dividing the inner space; a main body base that is formed on a lower end of the barrier to define an outer appearance of a lower portion of a main body, a bottom of the main body case being closed by the main body base; a plurality of heat exchangers (200, 210, 220) that are disposed at a side of the barrier to allow circulation air circulating the inner space to be heat-exchanged with external air introduced from an external side; a drain pan for temporally storing condensed water generated from the heat exchangers (200, 210, 220); and a water tank that stores the condensed water supplied from the drain pan, a support that is disposed under the main body base, wherein the water tank is installed on the support, wherein the water tank is installed between front and rear supporting portions (314' and 314") of the support and the water tank is installed to be taken out sideward, characterised in that a drain pipe for guiding the drainage of the condensed water is formed on the drain pan and the drain pipe is selectively closed by a drain unit, wherein the drain unit is provided in the form of a cantilever to open the drain pipe when the water tank is installed on the support and to close the drain pipe when the water tank is not installed on the support. a main body case that defines an inner space and is provided at a side with an external air inlet; a barrier dividing the inner space; a main body base that is formed on a lower end of the barrier to define an outer appearance of a lower portion of a main body, a bottom of the main body case being closed by the main body base; a plurality of heat exchangers (200, 210, 220) that are disposed at a side of the barrier to allow circulation air circulating the inner space to be heat-exchanged with external air introduced from an external side; a drain pan for temporally storing condensed water generated from the heat exchangers (200, 210, 220); and a water tank that stores the condensed water supplied from the drain pan, a support that is disposed under the main body base, wherein the water tank is installed on the support, wherein the water tank is installed between front and rear supporting portions (314' and 314") of the support and the water tank is installed to be taken out sideward, characterised in that a drain pipe for guiding the drainage of the condensed water is formed on the drain pan and the drain pipe is selectively closed by a drain unit, wherein the drain unit is provided in the form of a cantilever to open the drain pipe when the water tank is installed on the support and to close the drain pipe when the water tank is not installed on the support.
A method of controlling drilling based on determining a sensitivity range of an electromagnetic tool, the method comprising: obtaining a resistivity model over an interval of depths; obtaining an original tool response from the resistivity model over the interval of depths for a tool configuration; positioning an artificial layer in the resistivity model to generate a modified resistivity model; obtaining a modified tool response from the modified resistivity model; iteratively performing the positioning the artificial layer and the obtaining the modified tool response (240, 250); estimating the sensitivity range according to a position of the artificial layer when a normalized difference between the original tool response and the modified tool response reaches a threshold value (260, 270); and assigning a different confidence level to information obtained from the resistivity model beyond the sensitivity range and controlling the drilling based on the resistivity model and the confidence level. obtaining a resistivity model over an interval of depths; obtaining an original tool response from the resistivity model over the interval of depths for a tool configuration; positioning an artificial layer in the resistivity model to generate a modified resistivity model; obtaining a modified tool response from the modified resistivity model; iteratively performing the positioning the artificial layer and the obtaining the modified tool response (240, 250); estimating the sensitivity range according to a position of the artificial layer when a normalized difference between the original tool response and the modified tool response reaches a threshold value (260, 270); and assigning a different confidence level to information obtained from the resistivity model beyond the sensitivity range and controlling the drilling based on the resistivity model and the confidence level.
- A dishwasher comprising a tub; a circulation pump; at least one rack; at least one spray arm; a heat pump which heats the washing water; and a compressor, a condenser, an evaporator which draws heat from the outer environment and transfers the same to the condenser by means of the compressor, a capillary which is disposed between the condenser and the evaporator and which decreases the pressure and hence the temperature of the refrigerant, a refrigerant line composed of flow pipes wherein the refrigerant fluid flows, and at least one fan which provides the heat transfer by blowing the ambient air onto the evaporator, which all together constitute the heat pump, the capillary which is cooled down with the cold water which condenses in the evaporator during the operation of the heat pump and leaves the evaporator, a condensation receptacle wherein the water condensing on the evaporator is collected characterized by a first receptacle into which the condensate collected in the condensation receptacle is delivered by means of a first pump, and by the capillary which is placed into the first receptacle.
A food product enriched with one or more methylxanthines, comprising a total amount of from 100 to 3000 milligram of methylxanthines per unit amount of the food product, further comprising a polymeric polyphenol compound that has a molecular weight equal to or above 500 gram per mole and which is complexed with the one or more methylxanthines, wherein the weight ratio of the polymeric polyphenol compound to the one or more methylxanthines is from 10:1 to 1:10 wherein the food product is a cereal bar, chocolate bar, cookie, condiment, confectionery, desert, snack, spread, ice cream, dressing, mayonnaise, sauce, bakery product, shortening or cheese.
Tank system for a motor vehicle, comprising a tank, a reservoir arranged in the tank, an extraction unit which is adapted to extract fuel from the reservoir via an engine feed line and supply it to a drive unit of the motor vehicle, and at least one supply line which connects the reservoir to the tank, wherein the reservoir has a reservoir valve (6.1) and can be connected to the tank via the reservoir valve (6.1), wherein the reservoir valve (6.1) is open in normal operating mode in which the reservoir valve (6.1) is surrounded by fuel in the tank, and closed in a residual quantity mode in which the reservoir valve (6.1) is not surrounded by fuel in the tank, wherein the reservoir is a container which in residual quantity mode is open exclusively at the engine feed line and at the least one supply line, characterized in that the reservoir valve (6.1) is arranged in a surge pot of the tank so that the surge pot can be connected to the reservoir via the reservoir valve (6.1).
A method for predicting the performance of a Line-Of-Sight, LOS, multiple-input multiple-output, MIMO, radio link, the method comprising the steps of; • determining a single-input single-output, SISO, system gain, • obtaining a second set of parameters comprising a LOS-MIMO phase difference distribution, • calculating a LOS-MIMO incremental gain of the LOS-MIMO radio link, wherein the calculating comprises calculating a LOS-MIMO incremental gain distribution based on the LOS-MIMO phase difference distribution, • modifying the determined SISO system gain by accounting for the calculated LOS-MIMO incremental gain in the SISO system gain to obtain a LOS-MIMO system gain, • obtaining a set of operating condition requirements of the LOS-MIMO radio link, • predicting the LOS-MIMO radio link performance by comparing the LOS-MIMO system gain to the operating condition requirements of the LOS-MIMO radio link. • determining a single-input single-output, SISO, system gain, • obtaining a second set of parameters comprising a LOS-MIMO phase difference distribution, • calculating a LOS-MIMO incremental gain of the LOS-MIMO radio link, wherein the calculating comprises calculating a LOS-MIMO incremental gain distribution based on the LOS-MIMO phase difference distribution, • modifying the determined SISO system gain by accounting for the calculated LOS-MIMO incremental gain in the SISO system gain to obtain a LOS-MIMO system gain, • obtaining a set of operating condition requirements of the LOS-MIMO radio link, • predicting the LOS-MIMO radio link performance by comparing the LOS-MIMO system gain to the operating condition requirements of the LOS-MIMO radio link.
Method for determining an axle load acting on a linear or rotary axle, with a direct position measuring system, and an indirect position measuring system, wherein the linear or rotary axle is driven by way of drive kinematics with a drive motor, and the position of the linear or rotary axle is measured as a measurand with the two position measuring systems (9, 11), characterised in that, the measurands of the two position measuring systems (9, 11) are first converted to the same physical unit, and in that, from these two measurands a difference value: Δ x = MG directMS − MG indirectMS · UF is formed, where: MG directMS = measurand of the direct position measuring system MG indirectMS = measurand of the indirect position measuring system UF = conversion factor and in that, the difference value (Δx) is combined with a characteristic value (k(x Pos)) in accordance with the relationship: F axle load = Δ x · k xPos which characterises a position-dependent stiffness of the drive kinematics (4, 10, 12) between the two measuring points of the position measuring systems (9, 11) so as to determine the axle load. MG directMS = measurand of the direct position measuring system MG indirectMS = measurand of the indirect position measuring system UF = conversion factor and in that, the difference value (Δx) is combined with a characteristic value (k(x Pos)) in accordance with the relationship: F axle load = Δ x · k xPos which characterises a position-dependent stiffness of the drive kinematics (4, 10, 12) between the two measuring points of the position measuring systems (9, 11) so as to determine the axle load.
A seal for a trocar sleeve, comprising a sealing body (32; 32'; 92) which, in the direction of a longitudinal centre axis (18; 18'; 78) of the sealing body (32; 32'; 92), has a first axial end (34; 34'; 94) and a second axial end (36; 36'; 96) and, between the first and second ends (34, 36; 34', 36'; 94, 96), an elastic sealing element (38; 38'; 98) which, in a radially inner area relative to the longitudinal centre axis (18; 18'; 78), defines a passage (40; 40'; 99) for an instrument, wherein the sealing element (38; 38'; 98) has a substantially tubular hollow space (42; 42'; 100) whose radially inner wall area (44; 44'; 102) annularly surrounds the passage (40; 40'; 99), and wherein the hollow space (42; 42'; 100) contains a fluid, wherein the sealing element (38; 38'; 98) has a radially outer wall area (48; 48') on the radially outer side of the hollow space (42; 42'; 100), a wall thickness of which is larger than the wall thickness of the radially inner wall area (44; 44'; 102), characterized in that in a central area, the sealing body (32; 32'; 92) is stiffened by at least one central support ring (58; 58'; 104) that at least partially surrounds the hollow space (42; 42'; 100) from the outside.
A method for validating an operational flight path for an aircraft comprising: creating a flight path for an aircraft utilizing navigation, terrain and obstacle data retrieved from off-line databases; capturing real-time terrain and obstacles update information from flight data sensors on board the aircraft while in flight; capturing light direction and range LIDAR data from LIDAR sensors on board the aircraft while in flight; calculating a boundary profile for the flight path based upon the real-time terrain and obstacle update information in combination with the LIDAR data; characterized in that it comprises: validating the flight path using the boundary profile; generating a validation report of the flight path for the aircraft crew if the boundary profile for the flight path is broken; storing the validation report in a log repository for later retrieval; and generating a descriptive alert message based on analysis of retrieved previous validation reports from the log repository and any violations of the boundary profile. creating a flight path for an aircraft utilizing navigation, terrain and obstacle data retrieved from off-line databases; capturing real-time terrain and obstacles update information from flight data sensors on board the aircraft while in flight; capturing light direction and range LIDAR data from LIDAR sensors on board the aircraft while in flight; calculating a boundary profile for the flight path based upon the real-time terrain and obstacle update information in combination with the LIDAR data; characterized in that it comprises: validating the flight path using the boundary profile; generating a validation report of the flight path for the aircraft crew if the boundary profile for the flight path is broken; storing the validation report in a log repository for later retrieval; and generating a descriptive alert message based on analysis of retrieved previous validation reports from the log repository and any violations of the boundary profile.
A method for transmitting, by a user equipment, UE, a data unit in a wireless communication system, the method comprising: receiving, by the UE, first configuration information for one or more numerology sets, each numerology set including one or more numerologies; receiving, by the UE, second configuration information for one or more logical channels, each logical channel mapped to one or more numerologies; receiving, by the UE, a first uplink, UL, grant for new transmission, the first UL grant including information indicating a numerology set associated with the first UL grant; generating, by the UE, a medium access control, MAC, protocol data unit, PDU; performing, by the UE, a new transmission of the MAC PDU using the first UL grant; receiving, by the UE, a second UL grant for retransmission, the second UL grant including information indicating a numerology for the retransmission; and performing, by the UE, a retransmission of the MAC PDU by using the second UL grant if the numerology for the retransmission belongs to the numerology set indicated by the first UL grant, wherein the MAC PDU contains data from a logical channel of which each of the one or more mapped numerologies belongs to the numerology set associated with the first UL grant. receiving, by the UE, first configuration information for one or more numerology sets, each numerology set including one or more numerologies; receiving, by the UE, second configuration information for one or more logical channels, each logical channel mapped to one or more numerologies; receiving, by the UE, a first uplink, UL, grant for new transmission, the first UL grant including information indicating a numerology set associated with the first UL grant; generating, by the UE, a medium access control, MAC, protocol data unit, PDU; performing, by the UE, a new transmission of the MAC PDU using the first UL grant; receiving, by the UE, a second UL grant for retransmission, the second UL grant including information indicating a numerology for the retransmission; and performing, by the UE, a retransmission of the MAC PDU by using the second UL grant if the numerology for the retransmission belongs to the numerology set indicated by the first UL grant, wherein the MAC PDU contains data from a logical channel of which each of the one or more mapped numerologies belongs to the numerology set associated with the first UL grant.
Air duct comprising a check valve device for sealing an airway of the air duct, comprising two shut-off flaps (6, 7), the pivot axes of which are mutually adjacent and which are opened counter to a closing force by an airflow flowing in the airway, the air duct comprising an end extending bevelled with respect to the longitudinal extension thereof, and the two shut-off flaps (6, 7) being arranged at the end and - in the installation position of the air duct - being arranged at an inclination to the vertical as a result of the bevelled end in such a way that a gravitational force component of the weight of said flaps generates the closing force, maximum opening positions of the shut-off flaps (6, 7) being defined by contact of flap stops of the shut-off flaps (6, 7) against flap counter stops of the airway, and stop devices defining the closed positions of the shut-off flaps (6, 7) by way of stops, arranged on a wall of the airway, and by way of counter stops, provided on the shut-off flaps (6, 7) and coming up against the stops in the closed position, characterised in that the shut-off flaps (6, 7) each have a thickened flap edge and, for forming a pivot axis, two axial adapters of equal diameter connected via an edge zone thickening, the edge zone thickenings extending adjacently at a distance from an outer peripheral region of the associated shut-off flap (6, 7) over the entire length of said region, the outer peripheral regions each forming a flap edge strip which ensures optimal sealing in the closed position of the adjacent shut-off flap (6, 7), and an open position stop which forms one of the flap stops being positioned next to the axial adapters at a distance in each case and having a projection which, in each case, in the open position of the associated shut-off flap (6, 7), sits in a lineal or punctuate manner on an end wall, which forms one of the flap counter stops, of the wall of the airway, the end wall extending in the direction of the longitudinal extension of the air duct, in other words in the axial direction, the maximum opening angle (φ) of the shut-off flaps (6, 7) being less than 90°, the projection of the associated open position stop in each case lying contactlessly in an edge-receiving recess of the wall of the airway in the closed position of the shut-off flaps (6, 7), each of the shut-off flaps (6, 7) being formed elastically in such a way that it can be inserted by means of one of the axial adapters (33, 34) into a bearing hole (41, 42) in the wall, and the opposite one of the axial adapters (33, 34) can be inserted into the corresponding bearing hole (41, 42) in the wall with elastic bending of the associated shut-off flap (6, 7).
A beam steering device (D P) for a telecommunications antenna system, the device comprising: - at least one power source adapted to generate radiofrequency waves, - a planar quasi-optical beamformer, the inlet of which is adapted to be powered by said at least one source and the outlet of which is adapted to supply an array of radiating elements, the planar quasi-optical beamformer comprising a parallel plate waveguide, the inlet and outlet of the planar quasi-optical beamformer corresponding to the linear openings between the two parallel plates of the waveguide, - said array of radiating elements, wherein the device (D P) further comprises at least one mechanical translation element adapted to move, relative to one another, said at least one power supply source and at least one focusing element of said quasi-optical planar beamformer in a translational movement perpendicular to the supply direction of the array of radiating elements by the source. - at least one power source adapted to generate radiofrequency waves, - a planar quasi-optical beamformer, the inlet of which is adapted to be powered by said at least one source and the outlet of which is adapted to supply an array of radiating elements, the planar quasi-optical beamformer comprising a parallel plate waveguide, the inlet and outlet of the planar quasi-optical beamformer corresponding to the linear openings between the two parallel plates of the waveguide, - said array of radiating elements,
A portable electronic device, coupleable to a multi-media storage device having a processor therein that executes commands, the portable electronic device comprising: a multi-media device interface as part of the portable electronic device and comprising: a command processor, in the portable electronic device, that is configured to receive commands executable by the multi-media storage device, from a processor (28, 30) in said portable electronic device and forward the commands to the multi-media storage device operatively coupleable to said portable electronic device; a command queuing buffer, in the portable electronic device, operably coupled to said command processor and capable of being coupled to a multi-media storage device, said command queuing buffer for storing commands executable by said multi-media storage device sent from the processor (28, 30) in the portable electronic device; a multi-media interface controller, in the portable electronic device, operably coupled to said command processor and to said command queuing buffer, said multi-media interface controller for identifying commands from said portable electronic device to be stored in said command queuing buffer. a multi-media device interface as part of the portable electronic device and comprising: a command processor, in the portable electronic device, that is configured to receive commands executable by the multi-media storage device, from a processor (28, 30) in said portable electronic device and forward the commands to the multi-media storage device operatively coupleable to said portable electronic device; a command queuing buffer, in the portable electronic device, operably coupled to said command processor and capable of being coupled to a multi-media storage device, said command queuing buffer for storing commands executable by said multi-media storage device sent from the processor (28, 30) in the portable electronic device; a multi-media interface controller, in the portable electronic device, operably coupled to said command processor and to said command queuing buffer, said multi-media interface controller for identifying commands from said portable electronic device to be stored in said command queuing buffer. a command processor, in the portable electronic device, that is configured to receive commands executable by the multi-media storage device, from a processor (28, 30) in said portable electronic device and forward the commands to the multi-media storage device operatively coupleable to said portable electronic device; a command queuing buffer, in the portable electronic device, operably coupled to said command processor and capable of being coupled to a multi-media storage device, said command queuing buffer for storing commands executable by said multi-media storage device sent from the processor (28, 30) in the portable electronic device; a multi-media interface controller, in the portable electronic device, operably coupled to said command processor and to said command queuing buffer, said multi-media interface controller for identifying commands from said portable electronic device to be stored in said command queuing buffer.