mhurhangee/ep-ind-claims huggingface dataset:
Dishwashing machine, in particular a household dishwashing machine, having a box-shaped washing tank for receiving items to be washed and having a technology space provided underneath the tank base of the washing tank for receiving electrical components of the dishwashing machine, which technology space is at least partially surrounded by a soundproofing element (19, 19') designed as a three-dimensional moulded component (19, 19'), wherein the three-dimensional moulded component (19, 19') largely retains its original, prefabricated profiled form even in an assembled state, characterised in that - the technology space at least partially surrounded by a soundproofing element (19, 19') is delimited on its underside by a base carrier (1, 1') having a floor embodied thereon and is thus arranged between the floor embodied on the base carrier (1, 1') and the washing tank, - the washing tank is placed on the base carrier (1, 1') and - the soundproofing element (19, 19') comprises side walls (21, 22) which face one another, which rest against a lateral region of the base carrier (1, 1') and against a lateral region of the washing tank in each instance. - the technology space at least partially surrounded by a soundproofing element (19, 19') is delimited on its underside by a base carrier (1, 1') having a floor embodied thereon and is thus arranged between the floor embodied on the base carrier (1, 1') and the washing tank, - the washing tank is placed on the base carrier (1, 1') and - the soundproofing element (19, 19') comprises side walls (21, 22) which face one another, which rest against a lateral region of the base carrier (1, 1') and against a lateral region of the washing tank in each instance.
Loading system for piece goods, in particular parcels, postal items and items of luggage, comprising a first storage unit, a second storage unit, in particular a swap body, and a loading device, wherein a) the loading device comprises a base and a loading area; b) the loading area is arranged above the base of the loading device and is provided for receiving the piece goods; c) the loading device is designed as a transfer member between the first storage unit and the second storage unit; d) the second storage unit comprises at least one depositing area; e) the loading device and/or the second storage unit are designed such that the loading device can be positioned such that the piece goods can be transferred along an insertion direction from the loading area into the depositing area; and f) the loading device comprises an insertion device which is adapted to transfer the piece goods from the loading area at least partially as a loading unit into the depositing area; wherein the insertion device is designed as a conveyor means which is integrated in the base of the loading device and which can be driven in and/or against the insertion direction; wherein the loading device and/or the second storage unit are designed such that the second storage unit can accommodate the loading device in whole or at least in part, and characterized in that the loading system comprises a placement means adapted to at least assist in moving the piece goods during an insertion from the first storage unit into the loading area. a) the loading device comprises a base and a loading area; b) the loading area is arranged above the base of the loading device and is provided for receiving the piece goods; c) the loading device is designed as a transfer member between the first storage unit and the second storage unit; d) the second storage unit comprises at least one depositing area; e) the loading device and/or the second storage unit are designed such that the loading device can be positioned such that the piece goods can be transferred along an insertion direction from the loading area into the depositing area; and f) the loading device comprises an insertion device which is adapted to transfer the piece goods from the loading area at least partially as a loading unit into the depositing area; wherein the insertion device is designed as a conveyor means which is integrated in the base of the loading device and which can be driven in and/or against the insertion direction; wherein the loading device and/or the second storage unit are designed such that the second storage unit can accommodate the loading device in whole or at least in part, and characterized in that the loading system comprises a placement means adapted to at least assist in moving the piece goods during an insertion from the first storage unit into the loading area.
A sun sensor, in particular for use in an attitude and orbit control system of a spacecraft, with at least one detector, each of the detectors comprising: - a cathode (1601, 1603) with at least one planar detector surface (1602, 1604) that is made of metal and emits electrons upon exposure to UV-light, - a receiving anode for collecting the electrons emitted by the at least one planar detector surface (1602, 1604), - a current sensing means for measuring a current that is generated by the electrons which are emitted by the at least one planar detector surface (1602, 1604), - a processing unit for evaluating the current measured by the current sensing means, wherein the processing unit is adapted to determine an incidence angle of solar rays from an amount of the evaluated current, characterized in that the at least one planar detector surface (1602, 1604) is inclined with respect to an aperture plane of the sun sensor that allows the solar rays to be incident on the planar detector surface (1602, 1604). - a cathode (1601, 1603) with at least one planar detector surface (1602, 1604) that is made of metal and emits electrons upon exposure to UV-light, - a receiving anode for collecting the electrons emitted by the at least one planar detector surface (1602, 1604), - a current sensing means for measuring a current that is generated by the electrons which are emitted by the at least one planar detector surface (1602, 1604), - a processing unit for evaluating the current measured by the current sensing means, wherein the processing unit is adapted to determine an incidence angle of solar rays from an amount of the evaluated current, characterized in that the at least one planar detector surface (1602, 1604) is inclined with respect to an aperture plane of the sun sensor that allows the solar rays to be incident on the planar detector surface (1602, 1604).
A method, comprising: configuring, by a processor, at least one of a magnetron of a microwave oven or a wireless transceiver of the microwave oven and controlling, by the processor, operations of the magnetron and the wireless transceiver such that wireless communication by the wireless transceiver is not interfered by radiation from the magnetron as a result of the configuring, characterized in that the controlling of the operations of the magnetron comprises synchronizing a duty cycle of the magnetron with a window of time of wireless communication by the wireless transceiver such that the magnetron is powered on when the wireless transceiver is in a power-save mode and that the magnetron is powered off when the wireless transceiver is in a normal operating mode. configuring, by a processor, at least one of a magnetron of a microwave oven or a wireless transceiver of the microwave oven and controlling, by the processor, operations of the magnetron and the wireless transceiver such that wireless communication by the wireless transceiver is not interfered by radiation from the magnetron as a result of the configuring, characterized in that the controlling of the operations of the magnetron comprises synchronizing a duty cycle of the magnetron with a window of time of wireless communication by the wireless transceiver such that the magnetron is powered on when the wireless transceiver is in a power-save mode and that the magnetron is powered off when the wireless transceiver is in a normal operating mode.
Separator for an electrochemical element, in which at least 50% of the mass of the separator is formed by fibrillated regenerated cellulose fibers wherein, including the fibrillated regenerated cellulose fibers, at least 70% and at most 100% of the mass of the separator is formed by cellulose fibers, wherein the separator is calendered, and wherein under tensile load in the machine direction in accordance with ISO 1924-2:2008, the separator reaches its 0.1% yield point at an elongation of no less than 0.5% and no more than 2.0%.
A method for monitoring a malfunction of an APU caused by turbine vane fracture and rotation shaft jam, comprising: acquiring APU messages at multiple time points within a period; obtaining operation parameters of the APU according to the APU messages, the operation parameters including at least a start time STA for the APU to startup; calculating an average value AVG and a deviation index δ of the start time STA, wherein the average value AVG is calculated from the operation parameters obtained within the period; determining whether the APU is in a stable phase, a decline phase or a malfunction phase characterized in that: in response to the deviation index δ being less than a threshold value of the decline phase, determining that the APU is in the stable phase; in response to the deviation index δ being greater than the threshold value of the decline phase and less than a threshold value of the malfunction phase, determining that the APU is in the decline phase; and in response to the deviation index δ being greater than the threshold value of the malfunction phase, determining that the of APU is in the malfunction phase. acquiring APU messages at multiple time points within a period; obtaining operation parameters of the APU according to the APU messages, the operation parameters including at least a start time STA for the APU to startup; calculating an average value AVG and a deviation index δ of the start time STA, wherein the average value AVG is calculated from the operation parameters obtained within the period; determining whether the APU is in a stable phase, a decline phase or a malfunction phase characterized in that: in response to the deviation index δ being less than a threshold value of the decline phase, determining that the APU is in the stable phase; in response to the deviation index δ being greater than the threshold value of the decline phase and less than a threshold value of the malfunction phase, determining that the APU is in the decline phase; and in response to the deviation index δ being greater than the threshold value of the malfunction phase, determining that the of APU is in the malfunction phase. in response to the deviation index δ being less than a threshold value of the decline phase, determining that the APU is in the stable phase; in response to the deviation index δ being greater than the threshold value of the decline phase and less than a threshold value of the malfunction phase, determining that the APU is in the decline phase; and in response to the deviation index δ being greater than the threshold value of the malfunction phase, determining that the of APU is in the malfunction phase.
Method for modulating a microwave frequency pulse wave, characterized in that, the wave being transmitted by means of an antenna made up of an array of radiating elements (21, 22), two pulse waves are transmitted, each modulated by a phase shift law (251, 261) known as modulation phase shift, the phase shifts being in opposition, a first wave being transmitted by a sub-array of radiating elements referred to as odd and the second wave being transmitted by a second sub-array of radiating elements referred to as even, the two sub-arrays being interleaved, the transmitted wave being the combination of said first wave and said second wave, said two waves being obtained from the same pulse signal (s(t)), said signal being modulated by a first modulation phase shift for the odd radiating elements and by a second modulation phase shift for the even elements, - said first modulation phase shift is applied to the rising edge of the pulse by varying from -π/2 to 0 and to the falling edge by varying from 0 to -π/2; - said second modulation phase shift is applied to the rising edge of the pulse by varying from π/2 to 0 and to the falling edge by varying from 0 to π/2. - said first modulation phase shift is applied to the rising edge of the pulse by varying from -π/2 to 0 and to the falling edge by varying from 0 to -π/2; - said second modulation phase shift is applied to the rising edge of the pulse by varying from π/2 to 0 and to the falling edge by varying from 0 to π/2.
A compound of the formula: for use in a method for the treatment of a tumor or cancer in a mammal, wherein the tumor or cancer overexpresses Akt kinase.
Method for serially transmitting data in a bus system having at least two participating data processing units which interchange messages via the bus, the transmitted messages having a logical structure according to the CAN standard ISO 11898-1, the logical structure comprising a start-of-frame bit, an arbitration field, a control field, a data field, a CRC field, an acknowledge field and an end-of-frame sequence, the control field comprising a data length code containing an item of information relating to the length of the data field, characterized in that the data field of transmitted messages may comprise more than eight bytes in a manner deviating from the CAN standard ISO 11898-1, in which case, in order to determine the size of the data field, the values of the data length code are interpreted as at least partially deviating from the CAN standard ISO 11898-1, the temporal bit length inside a message being able to assume at least two different values, the temporal bit length for at least one second predefinable region having a reduced value in comparison with a first predefinable region inside the message.
A method of operating a first communications device (611, 711) to communicate with a second communications device (612, 712), the method comprising transmitting or receiving signals representing data to or from the second communications device over a sidelink wireless interface, the signals being transmitted or received by the second communications device in accordance with a current configuration for exchanging signalling with the second wireless communications device, determining that the current configuration is to be changed to a first new configuration, transmitting a first handover command to the second communications device over the sidelink wireless interface, the first handover command comprising an indication of the first new configuration to replace the current configuration, receiving via the sidelink wireless interface a handover reject indication from the second communications device, the handover reject indication transmitted in response to the first handover command and indicating that the second communications device is to continue to operate in accordance with the current configuration, and in response to receiving the handover reject indication, transmitting a second handover command, the second handover command comprising an indication of a second new configuration. transmitting or receiving signals representing data to or from the second communications device over a sidelink wireless interface, the signals being transmitted or received by the second communications device in accordance with a current configuration for exchanging signalling with the second wireless communications device, determining that the current configuration is to be changed to a first new configuration, transmitting a first handover command to the second communications device over the sidelink wireless interface, the first handover command comprising an indication of the first new configuration to replace the current configuration, receiving via the sidelink wireless interface a handover reject indication from the second communications device, the handover reject indication transmitted in response to the first handover command and indicating that the second communications device is to continue to operate in accordance with the current configuration, and in response to receiving the handover reject indication, transmitting a second handover command, the second handover command comprising an indication of a second new configuration.
A fluid control device, comprising: an inlet configured to be placed in fluid communication with a bodily fluid source; an outlet configured to be placed in fluid communication with a fluid collection device, a negative pressure differential being produced between the outlet and the inlet when the outlet is placed in fluid communication with the fluid collection device; a sequestration portion in fluid communication with the inlet, the sequestration portion including a first flow controller configured to transition from a first state in which the sequestration portion is sequestered from the outlet to a second state in which the sequestration portion is in fluid communication with the outlet when the negative pressure differential has a first magnitude; and a sampling portion in fluid communication with the outlet, the sampling portion including a second flow controller configured to transition from a first state in which the sampling portion is sequestered from the inlet to a second state in which the sampling portion is in fluid communication with the inlet when the negative pressure differential has a second magnitude greater than the first magnitude. an inlet configured to be placed in fluid communication with a bodily fluid source; an outlet configured to be placed in fluid communication with a fluid collection device, a negative pressure differential being produced between the outlet and the inlet when the outlet is placed in fluid communication with the fluid collection device; a sequestration portion in fluid communication with the inlet, the sequestration portion including a first flow controller configured to transition from a first state in which the sequestration portion is sequestered from the outlet to a second state in which the sequestration portion is in fluid communication with the outlet when the negative pressure differential has a first magnitude; and a sampling portion in fluid communication with the outlet, the sampling portion including a second flow controller configured to transition from a first state in which the sampling portion is sequestered from the inlet to a second state in which the sampling portion is in fluid communication with the inlet when the negative pressure differential has a second magnitude greater than the first magnitude.
A control device for use with a steerable medical device comprising: at least one pair of control wires (64A, 64B, 68A, 68B) for deflecting the distal end of the medical device; a housing configured for receiving the pair of control wires; transmission structure (260A, 260B) having first and second ends coupled to the ends of the pair of control wires; a drive member (248, 254) carried by the housing for pulling the pair of wires, the drive member drivingly engaged to the transmission structure; and an actuator operably coupled to the drive member for effecting movement of the drive member; wherein the transmission structure attains a first length in tension, and attains a second, smaller length in compression, wherein the transmission structure is biased to the second, smaller length, and wherein the transmission structure is a bead chain. at least one pair of control wires (64A, 64B, 68A, 68B) for deflecting the distal end of the medical device; a housing configured for receiving the pair of control wires; transmission structure (260A, 260B) having first and second ends coupled to the ends of the pair of control wires; a drive member (248, 254) carried by the housing for pulling the pair of wires, the drive member drivingly engaged to the transmission structure; and an actuator operably coupled to the drive member for effecting movement of the drive member; wherein the transmission structure attains a first length in tension, and attains a second, smaller length in compression, wherein the transmission structure is biased to the second, smaller length, and wherein the transmission structure is a bead chain.
A method for establishing a wireless communication system in a high-voltage power converter station (5a-5c) including a plurality of power devices (10a-10c), wherein the wireless communication system includes a plurality of wireless communication devices (15a-15c), some of which being associated with a power device such that a power device and a wireless communication device together form a wireless power electronic module (25a-25c), and at least one wireless networking device for providing a communication interface between the plurality of wireless communication devices and a controller configured to control said power devices, the method comprising: obtaining, at the controller, an indication of signal quality for each one of a plurality of first channels, wherein a first channel corresponds to a communication path between one of said at least one wireless networking device and a wireless communication device of the plurality of wireless communication devices using one of a plurality of radio beam directions; obtaining, at the controller, an indication of signal quality for each one of a plurality of second channels, wherein a second channel corresponds to a communication path between a wireless communication device and a wireless power electronic module of the plurality of wireless power electronic modules using one of a plurality of radio beam directions; and determining, by the controller, for every wireless power electronic module, at least one communication path from the controller to the wireless power electronic module based on the indications of signal quality obtained for the plurality of first channels and the plurality of second channels, wherein the determined communication path provides a signal quality above a threshold. obtaining, at the controller, an indication of signal quality for each one of a plurality of first channels, wherein a first channel corresponds to a communication path between one of said at least one wireless networking device and a wireless communication device of the plurality of wireless communication devices using one of a plurality of radio beam directions; obtaining, at the controller, an indication of signal quality for each one of a plurality of second channels, wherein a second channel corresponds to a communication path between a wireless communication device and a wireless power electronic module of the plurality of wireless power electronic modules using one of a plurality of radio beam directions; and determining, by the controller, for every wireless power electronic module, at least one communication path from the controller to the wireless power electronic module based on the indications of signal quality obtained for the plurality of first channels and the plurality of second channels, wherein the determined communication path provides a signal quality above a threshold.
Power semiconductor component, having - a power semiconductor device arranged within a housing, wherein a heat sink is exposed on a first surface of the housing; - a wiring substrate which receives the housing with the power semiconductor device and which has a first main surface and a second main surface, wherein a heat dissipation region with increased thermal conductivity is arranged on the second main surface; wherein the housing is arranged on the wiring substrate in such a way that the heat sink is connected to the heat dissipation region via a solder layer, wherein a number of spacers which are arranged between the heat sink and the heat dissipation region are embedded in the solder layer, and characterized in that the spacers are formed from a material that has good electrical and thermal conductivity. - a power semiconductor device arranged within a housing, wherein a heat sink is exposed on a first surface of the housing; - a wiring substrate which receives the housing with the power semiconductor device and which has a first main surface and a second main surface, wherein a heat dissipation region with increased thermal conductivity is arranged on the second main surface;