mhurhangee/ep-ind-claims huggingface dataset:
Household appliance, with a transport securing device, in particular a household refrigeration appliance, in the inner container of which a plurality of fixtures (GP1 to GP4) are accommodated in predefined vertical-position planes (P1 to P4), and wherein a common securing component is provided for securing the plurality of fixtures (GP1 to GP4) during transport, characterised in that a plate element which is doubled or folded over multiple times is provided as a common securing component transversely with respect to the vertical-position planes of the fixtures (GP1 to GP4) with a multiplicity of one or more clamping slots (KS11/KS21 to KS14/KS24), into which front edge zones of the plurality of fixtures (GP1 to GP4) are clamped, and in that the plate element which is doubled or folded over multiple times has a plurality of turned-over wall parts (HA, HB) which are arranged next to one another in a layered manner in positional planes transversely, in particular perpendicularly, with respect to the vertical-position planes of the fixtures (GP1 to GP4).
A method of determining a characteristic of a communication link, the method comprising: transmitting, at a wireless device, a request for a communication from a server; receiving, at the wireless device, the communication from the server, over the communication link, in response to the request; computing a target amount of at least one of traffic or time to receive the communication, wherein said computing is based on one or more of: a first ratio of the an amount of time a transport protocol spends in a congestion avoidance mode to the amount of time the transport protocol spends in a slow start mode, a number of transport flows, an estimated round trip time, an estimated segment size, and an maximum estimation rate; terminating the receiving of the communication based on the computed target amount of at least one of traffic or time to receive the communication; and determining a characteristic of the communication link based on the communication from the server. transmitting, at a wireless device, a request for a communication from a server; receiving, at the wireless device, the communication from the server, over the communication link, in response to the request; computing a target amount of at least one of traffic or time to receive the communication, wherein said computing is based on one or more of: a first ratio of the an amount of time a transport protocol spends in a congestion avoidance mode to the amount of time the transport protocol spends in a slow start mode, a number of transport flows, an estimated round trip time, an estimated segment size, and an maximum estimation rate; terminating the receiving of the communication based on the computed target amount of at least one of traffic or time to receive the communication; and determining a characteristic of the communication link based on the communication from the server.
A method for measuring the sulfur solubility of a test gas at a test temperature and test pressure in a laboratory apparatus, comprising: flowing the test gas into a first conduit, wherein the first conduit is packed with elemental sulfur, and is maintained at a first temperature that is sufficient to result in the uptake of elemental sulfur by the test gas in excess of the natural equilibrium solubility level of elemental sulfur in the test gas at the test temperature; introducing the test gas containing elemental sulfur into a second conduit, the second conduit being in fluid communication with the first conduit and maintained at a second temperature sufficient to lower the temperature of the test gas to a temperature that is equal to the test temperature, whereby the amount of elemental sulfur in the test gas is reduced to its natural equilibrium solubility level in the test gas at the test temperature; flowing the test gas into a third conduit that is in fluid communication with the second conduit, wherein at least a portion of the third conduit is maintained at a third temperature sufficient to result in deposition of the elemental sulfur from the test gas into a portion of the third conduit; and calculating the sulfur solubility of the test gas based on the amount of elemental sulfur deposited in the third conduit, characterized in that the method comprises saturating the test gas with water before flowing it into the first conduit. flowing the test gas into a first conduit, wherein the first conduit is packed with elemental sulfur, and is maintained at a first temperature that is sufficient to result in the uptake of elemental sulfur by the test gas in excess of the natural equilibrium solubility level of elemental sulfur in the test gas at the test temperature; introducing the test gas containing elemental sulfur into a second conduit, the second conduit being in fluid communication with the first conduit and maintained at a second temperature sufficient to lower the temperature of the test gas to a temperature that is equal to the test temperature, whereby the amount of elemental sulfur in the test gas is reduced to its natural equilibrium solubility level in the test gas at the test temperature; flowing the test gas into a third conduit that is in fluid communication with the second conduit, wherein at least a portion of the third conduit is maintained at a third temperature sufficient to result in deposition of the elemental sulfur from the test gas into a portion of the third conduit; and calculating the sulfur solubility of the test gas based on the amount of elemental sulfur deposited in the third conduit, characterized in that the method comprises saturating the test gas with water before flowing it into the first conduit.
A method for operating an at least three-phase DC-DC converter having a primary side comprising at least three actively switched primary voltage bridges (11, 12, 13) with several active switches for converting a DC input voltage into primary alternating voltages (111, 112, 113) for each of the primary voltage bridges (11, 12, 13), and having a secondary side comprising at least three actively switched secondary voltage bridges (21, 22, 23) with several active switches for converting the secondary alternating voltages (211, 212, 213) into a joint DC output voltage for each of the secondary voltage bridges (21, 22, 23), whereby each of the primary voltage bridges (11, 12, 13) is coupled to one of the secondary voltage bridges (21, 22, 23) via a multi-phase transformer, or via a transformer to one phase in each case, whereby the primary and secondary alternating voltages (111, 112, 113, 211, 212, 213) with a period T are shifted by a phase angle φ, said method comprising the steps of setting the phase angle φ from a first phase angle φ1 to a second phase angle φ2 as the switching operation for transferring power from the primary side to the secondary side, characterized in that the primary and secondary voltage bridges (11, 12, 13, 21, 22, 23) are switched during the switching operation in such a way that the phase angles φ of the individual phases are changed during the switching operation in a time-shifted manner, independently of each other, within a period T of a voltage ripple of the DC-DC converter.
A lighting system, having a plurality of luminaires, means for power supply to the luminaires for general lighting (30, 31) as well as means for power supply for security lighting (20, 21), wherein at least some of the luminaires are connected both to the means for the power supply for the general lighting (30, 31) as well as to the means for power supply for the security lighting (20, 21), and wherein of said luminaires connected to both power supply means, individual luminaires can be optionally selected as security luminaires in such a manner that in the event of emergency/security operation, they assume a state of emergency operation on the basis of the energy supplied by the means for power supply for security lighting (20, 21), characterized in that the system has a central control unit as well as a switch unit connected to the central control unit, wherein at least two luminaires are assigned to the switch unit and one of the two luminaires is designated as a security luminaire, and wherein the control unit is designed, in the event of a failure of the luminaire, which is designated as a security luminaire, to induce the switch unit to designate another one of the at least two luminaires, which was not yet selected as a security luminaire, as a new security luminaire.
A smart card holder comprising: a holder body and at least one holder terminal for being in electrical contact with a metal chip of a smart card; each holder terminal including a terminal fixing portion and a strip-shaped terminal cantilever, a tail of the terminal cantilever being fixedly connected to a first fixing end of the terminal fixing portion, a head of the terminal cantilever being contiguously placed on a second fixing end of the terminal fixing portion, and a middle portion of the terminal cantilever being higher than the tail of the terminal cantilever and the head of the terminal cantilever, said smart card holder being characterized in that the terminal fixing portion is a framed metal structure with a middle cutout, the second fixing end being provided with two bent portions (2212a, 2212b) projecting towards the cutout with each other; wherein each bent portion (2212a, 2212b) gradually declines from the tail to the head of the terminal cantilever.
A method for modifying and forwarding a message in a data communication network, the method comprises: extracting description information of a message head as message descriptor information; storing message fragments except the message descriptor information; distributing and reassembling the message fragments according to port numbers; re-splicing the message fragments into a complete message; and sending the message to an external interface in time sequence, characterized in that, before distributing and reassembling the message fragments, the method further comprises: searching a pre-stored message modification description table for modification parameters used for a message modification according to the message descriptor information; determining message modification actions of message fragments to be modified according to the obtained modification parameters; grouping the message fragments to be modified on which a same message modification action needs to be performed into one group; and uniformly performing the same message modification action on the one group of message fragments. extracting description information of a message head as message descriptor information; storing message fragments except the message descriptor information; distributing and reassembling the message fragments according to port numbers; re-splicing the message fragments into a complete message; and sending the message to an external interface in time sequence, characterized in that, before distributing and reassembling the message fragments, the method further comprises: searching a pre-stored message modification description table for modification parameters used for a message modification according to the message descriptor information; determining message modification actions of message fragments to be modified according to the obtained modification parameters; grouping the message fragments to be modified on which a same message modification action needs to be performed into one group; and uniformly performing the same message modification action on the one group of message fragments. searching a pre-stored message modification description table for modification parameters used for a message modification according to the message descriptor information; determining message modification actions of message fragments to be modified according to the obtained modification parameters; grouping the message fragments to be modified on which a same message modification action needs to be performed into one group; and uniformly performing the same message modification action on the one group of message fragments.
Diagnostics method for diagnosing a nitrogen oxides trap capable, during a regeneration step (110, 130), of breaking down the nitrogen oxides stored in the trap by reaction with reducing agents, comprising: - a determination step of determining the mass of reducing agents (M red) consumed during a regeneration step; - a comparison step of comparing the said mass (M red) against a failure threshold below which it is determined that the trap is defective; and - an emission step in which a signal is emitted indicating the defective status of the trap, CHARACTERIZED IN THAT the mass of reducing agents (M red) is determined during a second trap regeneration step which begins after a short time delay (Δt time) following a first regeneration step of full regeneration of the trap. - a determination step of determining the mass of reducing agents (M red) consumed during a regeneration step; - a comparison step of comparing the said mass (M red) against a failure threshold below which it is determined that the trap is defective; and - an emission step in which a signal is emitted indicating the defective status of the trap,
An intermediate station comprising at least one receiver in which the workpiece can be placed in a defined position and/or orientation, characterized in that the receiver is arranged at the intermediate station with a certain play and has a compensation apparatus which allows an inaccurate placing down, so that the receiver yields correspondingly on an inexact placing of the workpiece.
Device for closing an inspection opening into a panel-like structure element of a dry building structure, in particular for a wall or a ceiling, in which the stated device comprises a frame framing the inspection opening and a closure cover for closing the inspection opening, wherein the frame is of panel-like form, wherein a material thereof corresponds to a material of a panel-like structure element of a dry-building structure, and wherein the closure cover is adapted to the frame already in the factory characterized in that the closure cover is pivotable by pivot pegs on the frame and/or on the closure cover, which pivot pegs are insertable into guides, in particular guide tracks, of the respective other element (18, 19).
Electromedical device for blood coagulation, treatment of ulcers and other dermatological lesions in human and animal patients comprising a gas injection system, an air compressor, an inert gas bottle coupled to the gas injection system, a gas cooling system, a gas dehumidification system, a transport hose, a manual applicator, and a high frequency electric power generating unit; wherein the gas that flows from the gas injection system is treated by the gas cooling system and the gas dehumidification system before entering in the transport hose towards the manual applicator; wherein the manual applicator comprises a positive electrode of a frustoconical shape axially perforated at its vertex facing a flat ground electrode generating a region where plasma is produced between them; the high frequency electric power generating unit is coupled to said electrodes (12,13); and a jet of cold non-thermal plasma at atmospheric pressure is produced when the gas flows through the hole made in the center of the positive electrode and crosses the region where the plasma is produced and is driven though a central hole axially perforated in the flat ground electrode and is expelled by a plasma outlet orifice; and a general digital control system comprising an user control touch screen, wherein the general control system is connected to the high-frequency power generating unit and connected to the gas injection system, the gas cooling system and the gas dehumidification system. wherein the gas that flows from the gas injection system is treated by the gas cooling system and the gas dehumidification system before entering in the transport hose towards the manual applicator; wherein the manual applicator comprises a positive electrode of a frustoconical shape axially perforated at its vertex facing a flat ground electrode generating a region where plasma is produced between them; the high frequency electric power generating unit is coupled to said electrodes (12,13); and a jet of cold non-thermal plasma at atmospheric pressure is produced when the gas flows through the hole made in the center of the positive electrode and crosses the region where the plasma is produced and is driven though a central hole axially perforated in the flat ground electrode and is expelled by a plasma outlet orifice; and a general digital control system comprising an user control touch screen, wherein the general control system is connected to the high-frequency power generating unit and connected to the gas injection system, the gas cooling system and the gas dehumidification system.
A method for seamless activation of new high bandwidth lanes, comprising: exchanging indications between first and second devices about activating the new high bandwidth lanes; wherein during the exchanging of the indications, the first device sends data to the second device using 8b/10b code words with a fixed delay over at least one first-to-second (f2s) active high bandwidth lane, the second device sends data to the first device using 8b/10b code words with a fixed delay over at least one second-to-first (s2f) active high bandwidth lane, and the new high bandwidth lanes are off; wherein adding the new high bandwidth lanes is to be done without interrupting the fixed delay transmissions over the f2s and s2f active high bandwidth lanes; sending, by the first device, an idle sequence using 7b/10b code words over the new high bandwidth lanes in parallel to continue to send and receive the 8b/10b data with a fixed delay over the f2s and s2f active high bandwidth lanes; sending, by the first device over the at least one f2s active high bandwidth lane, a synchronization sequence during an inter packet gap; and further comprising sending by the first device, over the new high bandwidth lanes and in parallel to a predetermined point within the synchronization sequence, a known non-idle sequence; utilizing, by the second device, the known non-idle sequence for deskewing the new high bandwidth lanes; and sending, by the first device, a transition sequence over both the at least one f2s active high bandwidth lane and the new high bandwidth lanes. exchanging indications between first and second devices about activating the new high bandwidth lanes; wherein during the exchanging of the indications, the first device sends data to the second device using 8b/10b code words with a fixed delay over at least one first-to-second (f2s) active high bandwidth lane, the second device sends data to the first device using 8b/10b code words with a fixed delay over at least one second-to-first (s2f) active high bandwidth lane, and the new high bandwidth lanes are off; wherein adding the new high bandwidth lanes is to be done without interrupting the fixed delay transmissions over the f2s and s2f active high bandwidth lanes; sending, by the first device, an idle sequence using 7b/10b code words over the new high bandwidth lanes in parallel to continue to send and receive the 8b/10b data with a fixed delay over the f2s and s2f active high bandwidth lanes; sending, by the first device over the at least one f2s active high bandwidth lane, a synchronization sequence during an inter packet gap; and further comprising sending by the first device, over the new high bandwidth lanes and in parallel to a predetermined point within the synchronization sequence, a known non-idle sequence; utilizing, by the second device, the known non-idle sequence for deskewing the new high bandwidth lanes; and sending, by the first device, a transition sequence over both the at least one f2s active high bandwidth lane and the new high bandwidth lanes.
A portable and/or mobile signal generating device for coupling to a preset limiting element, which defines a processing area (A, B, C) for an autonomously driving ground processing robot, at least comprising - a housing with at least two terminals, to which an end of the preset limiting element can respectively be coupled, - a signal generating unit arranged in the housing, which can be electrically coupled to the preset limiting element via the at least two terminals and which is configured to transmit an electrical signal through the preset limiting element, and - at least one battery pack, which supplies the signal generating unit with electrical energy, wherein the battery pack is detachably connected to the signal generating device, wherein - the at least one battery pack includes a battery pack housing, within which multiple battery cells are arranged, - the battery pack comprises a battery pack interface, characterized in that - the battery pack interface comprises plug-in contacts or snap-in contacts and is formed for detachably mechanically and electrically coupling to the housing of the signal generating device, and - the housing comprises a battery receiving interface on an outer side, which is formed compatibly with the battery pack interface of the battery pack, such that the battery pack can be mechanically and electrically coupled to the battery receiving interface of the housing via its battery pack interface. - a housing with at least two terminals, to which an end of the preset limiting element can respectively be coupled, - a signal generating unit arranged in the housing, which can be electrically coupled to the preset limiting element via the at least two terminals and which is configured to transmit an electrical signal through the preset limiting element, and - at least one battery pack, which supplies the signal generating unit with electrical energy, wherein the battery pack is detachably connected to the signal generating device, wherein - the at least one battery pack includes a battery pack housing, within which multiple battery cells are arranged, - the battery pack comprises a battery pack interface, characterized in that - the battery pack interface comprises plug-in contacts or snap-in contacts and is formed for detachably mechanically and electrically coupling to the housing of the signal generating device, and - the housing comprises a battery receiving interface on an outer side, which is formed compatibly with the battery pack interface of the battery pack, such that the battery pack can be mechanically and electrically coupled to the battery receiving interface of the housing via its battery pack interface.