mhurhangee/ep-ind-claims huggingface dataset:
Brake test system (10, 30, 50) for performing at least one part of an automatic brake test of a brake system of at least one rail vehicle (201 - 20n), wherein the brake test system is not part of a rail vehicle (201 - 20n) and is not part of a system, which is arranged to move the rail vehicle (201 - 20n), wherein the brake test system has a data processing device with a data source (15, 16, 36, 37, 56, 57), characterised by a first automatic coupling apparatus, which can be coupled to at least one fluid connector of the at least one rail vehicle (201 - 20n) for providing a pressurised fluid to the brake system of the at least one rail vehicle (201 - 20n), and a second automatic coupling apparatus, which is connected to the data processing device and is designed for coupling to an electric connector of the at least one rail vehicle (201 - 20n), wherein the data processing device is configured, to receive data for performing the at least one part of the automatic brake test from the data source (15, 16, 36, 37, 56, 57) and to transmit test signals for performing the at least one part of the automatic brake test to the at least one rail vehicle (201 - 20n), to receive signal responses from the at least one rail vehicle (201 - 20n) during the performing or after completion of the at least one part of the automatic brake test, and to transmit the signal responses or signals derived therefrom to at least one evaluation apparatus (15, 101, 301, 501) for the evaluation of the received signal responses. to move the rail vehicle (201 - 20n), wherein the brake test system has a data processing device with a data source (15, 16, 36, 37, 56, 57), characterised by a first automatic coupling apparatus, which can be coupled to at least one fluid connector of the at least one rail vehicle (201 - 20n) for providing a pressurised fluid to the brake system of the at least one rail vehicle (201 - 20n), and a second automatic coupling apparatus, which is connected to the data processing device and is designed for coupling to an electric connector of the at least one rail vehicle (201 - 20n), wherein the data processing device is configured, to receive data for performing the at least one part of the automatic brake test from the data source (15, 16, 36, 37, 56, 57) and to transmit test signals for performing the at least one part of the automatic brake test to the at least one rail vehicle (201 - 20n), to receive signal responses from the at least one rail vehicle (201 - 20n) during the performing or after completion of the at least one part of the automatic brake test, and to transmit the signal responses or signals derived therefrom to at least one evaluation apparatus (15, 101, 301, 501) for the evaluation of the received signal responses.
Device for recovering hydraulic energy in an implement with a mooring pump for operation as pump or as motor, comprising a high-pressure accumulator as well as a working cylinder and a throttle differential circuit for connecting the bottom side of the working cylinder with the rod side of the working cylinder of the implement, wherein the device is configured such that if pressure is applied to the working cylinder by lowering of a boom of the implement, hydraulic fluid flows out of the working cylinder into three regions, wherein in the first region the mooring pump operates in the motor mode and drives multiple pumps via a transmission, wherein in the second region the high-pressure accumulator stores pressure energy, and wherein in the third region the hydraulic fluid flowing out of the bottom side or the rod side of the working cylinder at least partly fills the respective other side of the working cylinder, wherein a hydraulic slewing gear pump (22, 25) is provided for driving a slewing gear of the implement, wherein stored energy of the high-pressure accumulator can be transmitted to the other pumps and/or to a diesel engine via the slewing gear pump (22, 25).
A process for the production of dimethyl ether, the process comprising: contacting an aqueous extractant comprising water and an effluent from a methanol synthesis reactor, in a partial or total vapor phase and comprising methanol and one or more of methane, water, carbon monoxide, carbon dioxide, hydrogen, and nitrogen, whereby at least a portion of the methanol partitions into the aqueous extractant; recovering an extract fraction comprising the aqueous extractant and methanol; recovering a raffinate fraction comprising the one or more of methane, water, carbon monoxide, carbon dioxide, hydrogen, and nitrogen; contacting the raffinate fraction in indirect heat exchange with the effluent from the methanol synthesis reactor in a heat exchanger; feeding the extract fraction to a catalytic distillation reactor system; concurrently in the catalytic distillation reactor system: i) contacting the methanol with a catalyst in a distillation reaction zone thereby catalytically reacting at least a portion of the methanol to form dimethyl ether and water; and ii) fractionating the resulting dimethyl ether and the water to recover a first overheads fraction comprising dimethyl ether and a first bottoms fraction comprising water. contacting an aqueous extractant comprising water and an effluent from a methanol synthesis reactor, in a partial or total vapor phase and comprising methanol and one or more of methane, water, carbon monoxide, carbon dioxide, hydrogen, and nitrogen, whereby at least a portion of the methanol partitions into the aqueous extractant; recovering an extract fraction comprising the aqueous extractant and methanol; recovering a raffinate fraction comprising the one or more of methane, water, carbon monoxide, carbon dioxide, hydrogen, and nitrogen; contacting the raffinate fraction in indirect heat exchange with the effluent from the methanol synthesis reactor in a heat exchanger; feeding the extract fraction to a catalytic distillation reactor system; concurrently in the catalytic distillation reactor system: i) contacting the methanol with a catalyst in a distillation reaction zone thereby catalytically reacting at least a portion of the methanol to form dimethyl ether and water; and ii) fractionating the resulting dimethyl ether and the water to recover a first overheads fraction comprising dimethyl ether and a first bottoms fraction comprising water. i) contacting the methanol with a catalyst in a distillation reaction zone thereby catalytically reacting at least a portion of the methanol to form dimethyl ether and water; and ii) fractionating the resulting dimethyl ether and the water to recover a first overheads fraction comprising dimethyl ether and a first bottoms fraction comprising water.
An insomnia treatment assistance device comprising: a sleep efficiency calculation unit calculating a sleep efficiency of a user, on the basis of information indicating a bedtime, a fall-asleep time, a wakening time, and a get-up time of the user; a bedtime setting unit setting a target bedtime, on the basis of the sleep efficiency calculated by the sleep efficiency calculation unit, to notify the target bedtime to the user; and a compliance status index value calculation unit calculating a compliance status index value representing a status of whether the user complies with the target bedtime set by the bedtime setting unit within a predetermined period, wherein the bedtime setting unit sets a time later than a previous set bedtime as a next bedtime when the sleep efficiency calculated by the sleep efficiency calculation unit is less than a first predetermined value and the compliance status index value calculated by the compliance status index value calculation unit is a threshold value or more, sets a time identical to the previous set bedtime as the next bedtime when the sleep efficiency calculated by the sleep efficiency calculation unit is less than the first predetermined value and the compliance status index value calculated by the compliance status index value calculation unit is less than the threshold value, and sets a time earlier than the previous set bedtime as the next bedtime when the sleep efficiency calculated by the sleep efficiency calculation unit is a second predetermined value or more. a sleep efficiency calculation unit calculating a sleep efficiency of a user, on the basis of information indicating a bedtime, a fall-asleep time, a wakening time, and a get-up time of the user; a bedtime setting unit setting a target bedtime, on the basis of the sleep efficiency calculated by the sleep efficiency calculation unit, to notify the target bedtime to the user; and a compliance status index value calculation unit calculating a compliance status index value representing a status of whether the user complies with the target bedtime set by the bedtime setting unit within a predetermined period, wherein the bedtime setting unit sets a time later than a previous set bedtime as a next bedtime when the sleep efficiency calculated by the sleep efficiency calculation unit is less than a first predetermined value and the compliance status index value calculated by the compliance status index value calculation unit is a threshold value or more, sets a time identical to the previous set bedtime as the next bedtime when the sleep efficiency calculated by the sleep efficiency calculation unit is less than the first predetermined value and the compliance status index value calculated by the compliance status index value calculation unit is less than the threshold value, and sets a time earlier than the previous set bedtime as the next bedtime when the sleep efficiency calculated by the sleep efficiency calculation unit is a second predetermined value or more.
A method of handling buffer status reporting for a User Equipment in a wireless communication system comprising a network, the method comprising: providing a first buffer size level table; providing a second buffer size level table; said method being characterized by: using an indication in a Radio Resource Control, in the following referred to as RRC, Connection Reconfiguration message to indicate whether to use the second buffer size level table or the first buffer size level table such that the network controls which buffer size level table should be used, wherein whether to use the second buffer size level table is not coupled to Carrier Aggregation, CA, or uplink Multiple-Input Multiple-Output, UL MIMO, wherein a maximum buffer size value of the second buffer size level table is greater than a maximum buffer size value of the first buffer size level table. providing a first buffer size level table; providing a second buffer size level table; said method being characterized by: using an indication in a Radio Resource Control, in the following referred to as RRC, Connection Reconfiguration message to indicate whether to use the second buffer size level table or the first buffer size level table such that the network controls which buffer size level table should be used, wherein whether to use the second buffer size level table is not coupled to Carrier Aggregation, CA, or uplink Multiple-Input Multiple-Output, UL MIMO, wherein a maximum buffer size value of the second buffer size level table is greater than a maximum buffer size value of the first buffer size level table.
An in-cell touch panel, comprising: an upper substrate and a lower substrate, arranged oppositely to each other; a conductive layer, provided on a side, facing the lower substrate, of the upper substrate or on a side, facing the upper substrate, of the lower substrate, wherein the conductive layer comprises a plurality of hollowed-out regions arranged in a matrix form; a plurality of self-capacitance electrodes, arranged in a layer in which the conductive layer is arranged, and insulated from the conductive layer, wherein each of the hollowed-out regions is provided therein with at least one of the self-capacitance electrodes, and a plurality of conductive wires, uncrossed with each other, respectively electrically connected with the self-capacitance electrodes, and arranged in a layer different from the layer in which the conductive layer is arranged, wherein the self-capacitance electrodes are connected to the respective conductive wires. an upper substrate and a lower substrate, arranged oppositely to each other; a conductive layer, provided on a side, facing the lower substrate, of the upper substrate or on a side, facing the upper substrate, of the lower substrate, wherein the conductive layer comprises a plurality of hollowed-out regions arranged in a matrix form; a plurality of self-capacitance electrodes, arranged in a layer in which the conductive layer is arranged, and insulated from the conductive layer, wherein each of the hollowed-out regions is provided therein with at least one of the self-capacitance electrodes, and a plurality of conductive wires, uncrossed with each other, respectively electrically connected with the self-capacitance electrodes, and arranged in a layer different from the layer in which the conductive layer is arranged, wherein the self-capacitance electrodes are connected to the respective conductive wires.
A method for improving a flavor of smoke comprising: generating smoke by combustion, incomplete combustion, or thermal decomposition of a plant material; and heating said smoke with a secondary heater, wherein a heating temperature by said secondary heater is lower than 800°C but not lower than 300°C. generating smoke by combustion, incomplete combustion, or thermal decomposition of a plant material; and heating said smoke with a secondary heater, wherein a heating temperature by said secondary heater is lower than 800°C but not lower than 300°C.
A method in connection with a frequency converter, which frequency converter comprises output phases and switches of the output phases, the output phases being coupled to feed a load, and the main circuit of the frequency converter being provided with common-mode inductance, characterized by the method comprising a step where, in case of earth fault, modulating the switches of the output phase having an earth fault for providing an average potential for this phase that corresponds to the ground potential whereby the earth fault current cannot increase uncontrollably.
A hose (3, 3A) for use with a surface cleaning apparatus, the hose (3, 3A) comprising: a support structure (10, 30) extending along a length of the hose (3, 3A), wherein the support structure (10, 30) includes one or more support members at least partially surrounded by a layer of cover material to form one or more collapsible sections, wherein the hose (3, 3A) includes an interior surface proximate a passageway of the hose (3, 3A) for receiving dirty air and an exterior surface opposite the interior surface, the hose (3, 3A) having an outer radius of R1; wherein the support structure (10, 30) is compressible to transition the hose (3, 3A) into a storage configuration to shorten the overall length of the hose (3, 3A), and an in-use configuration to increase the overall length of the hose (3, 3A), and wherein each of the one or more collapsible sections extends a distance D1 into the passageway in the storage configuration; charcterized in that the support structure (10, 30) includes a plurality of retaining members (16, 17) for releasably locking the hose (3, 3A) into the storage configuration. a support structure (10, 30) extending along a length of the hose (3, 3A), wherein the support structure (10, 30) includes one or more support members at least partially surrounded by a layer of cover material to form one or more collapsible sections, wherein the hose (3, 3A) includes an interior surface proximate a passageway of the hose (3, 3A) for receiving dirty air and an exterior surface opposite the interior surface, the hose (3, 3A) having an outer radius of R1; wherein the support structure (10, 30) is compressible to transition the hose (3, 3A) into a storage configuration to shorten the overall length of the hose (3, 3A), and an in-use configuration to increase the overall length of the hose (3, 3A), and wherein each of the one or more collapsible sections extends a distance D1 into the passageway in the storage configuration; charcterized in that the support structure (10, 30) includes a plurality of retaining members (16, 17) for releasably locking the hose (3, 3A) into the storage configuration.
A device for the self-collection of cells from the cervix, comprising at least: - one interior cannula which comprises a plunger at a proximal end and a collection thimble at the distal end thereof; and - one exterior sheath which is passed through by the interior cannula, and - rotation means between the interior cannula and the exterior sheath which allow the rotation and sliding of the exterior sheath on the interior cannula, characterized in that that the rotation means comprise two protrusions on opposing sides of the surface of the plunger of the cannula which fit in respective helicoidal channels provided on the interior wall of the sheath - one interior cannula which comprises a plunger at a proximal end and a collection thimble at the distal end thereof; and - one exterior sheath which is passed through by the interior cannula, and - rotation means between the interior cannula and the exterior sheath which allow the rotation and sliding of the exterior sheath on the interior cannula,
A system for controlling power within a software defined radio: comprising a red, i.e. command, and black, i.e. data, radio subsystem having an operating platform environment conformable to the Software Communications Architecture specification, each radio subsystem having radio components to be powered by a battery; an executable radio software system operable with the radio circuit and conforming to the Software Communications Architecture specification; a currently running waveform application; a power management service operable with the radio components to coordinate the power among the radio components; a system control processor operative with the operating platform environment; and power management facilities of said power management service are defined as a set of power management states for each of the radio components, characterized in that said set of states are used to form a high-level power management state model for the radio as a whole, wherein said system control processor and said currently running waveform application are configured as clients of the power management service, and in that said power management service further comprises a control port through which clients are adapted to manage power and which clients are configured to cast their votes to suspend power to radio components at the power management service which is adapted to sequence through suspend actions in response to said votes, to abort a suspend sequence, or to reverse any previous power management action.
Packaging machine comprising a chain (1,14) for a material transport, wherein clamping units for clamping a packaging foil are provided on the chain (1,14) and wherein the chain (1,14) comprises a row of successive rigid chain links moveably connected with each other, characterized in that flexible chain links are provided between the rigid chain links and the flexible chain links are fixedly connected with the rigid chain links, wherein the rigid chain links are mounted on a continuous flexible traction element and fixed thereto.
Method for use in a cellular communication network comprising at least a base station covering a cell area including: measuring uplink interference in the cell area; and the method being characterised by: when the measured uplink interference increases above a threshold value, decreasing the power of a pilot channel (PCIPCH) transmitted by the base station according to a decreasing function of the uplink interference between the threshold value and a further threshold value, which is larger than the threshold value; and when the uplink interference is above the further threshold value, the pilot channel is transmitted with a minimum transmission power (Min). when the measured uplink interference increases above a threshold value, decreasing the power of a pilot channel (PCIPCH) transmitted by the base station according to a decreasing function of the uplink interference between the threshold value and a further threshold value, which is larger than the threshold value; and when the uplink interference is above the further threshold value, the pilot channel is transmitted with a minimum transmission power (Min).
An air data probe, comprising: an elongated body structure having a proximal end and a distal end, the elongated body structure including an outer surface and an opposing inner surface that defines an interior channel; a probe tip located at the distal end of the elongated body structure, the probe tip including an outer surface and an inner surface that are contiguous with the outer and inner surfaces of the elongated body structure, the probe tip having an opening in communication with the interior channel that allows outside air to pass from the probe tip into the interior channel; and a single electrical heater cable coupled to the elongated body structure and the probe tip, the electrical heater cable comprising a compact double layer helix portion coupled to the probe tip, and a single layer helix portion joined to the compact double layer helix portion by a coil turn-around section, the single layer helix portion extending along the elongated body structure toward the proximal end; wherein the single layer helix portion and the compact double layer helix portion comprise a first helical part and a second helical part of the electrical heater cable, the first and second helical parts arranged to have alternating coils along the elongated body structure, and wherein the first helical part comprises the coil turn-around section such that the first helical part changes helical direction between the proximal end and the probe tip, and the second helical part follows the same helical direction between the probe tip and the proximal end. an elongated body structure having a proximal end and a distal end, the elongated body structure including an outer surface and an opposing inner surface that defines an interior channel; a probe tip located at the distal end of the elongated body structure, the probe tip including an outer surface and an inner surface that are contiguous with the outer and inner surfaces of the elongated body structure, the probe tip having an opening in communication with the interior channel that allows outside air to pass from the probe tip into the interior channel; and a single electrical heater cable coupled to the elongated body structure and the probe tip, the electrical heater cable comprising a compact double layer helix portion coupled to the probe tip, and a single layer helix portion joined to the compact double layer helix portion by a coil turn-around section, the single layer helix portion extending along the elongated body structure toward the proximal end; wherein the single layer helix portion and the compact double layer helix portion comprise a first helical part and a second helical part of the electrical heater cable, the first and second helical parts arranged to have alternating coils along the elongated body structure, and wherein the first helical part comprises the coil turn-around section such that the first helical part changes helical direction between the proximal end and the probe tip, and the second helical part follows the same helical direction between the probe tip and the proximal end.