mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a client signal in an optical transport network, OTN, wherein the method comprises: dividing, by an OTN device,) a payload of an optical payload unit, OPU, signal into m first-granularity tributary slots; dividing, by the OTN device, one of the m first-granularity tributary slots into n second-granularity tributary slots, wherein a rate of the first-granularity tributary slot is n times that of the second-granularity tributary slot, m is a positive integer greater than 1, and n is a positive integer greater than 1; mapping, by the OTN device, a first client signal onto a payload in which one or more of the n second-granularity tributary slots are located; and adding an overhead of the first-granularity tributary slot and an overhead of the second-granularity tributary slot for the OPU signal, to generate an optical data unit,ODU, signal; and sending the ODU signal, and the method further comprises: dividing, by the OTN device, another first-granularity tributary slot of the m first-granularity tributary slots into x third-granularity tributary slots based on at least one of a rate, a transmission distance, and a modulation format of a received second client signal, wherein the rate of the first-granularity tributary slot is x times that of the third-granularity tributary slot, and x is a positive integer greater than 1. dividing, by an OTN device,) a payload of an optical payload unit, OPU, signal into m first-granularity tributary slots; dividing, by the OTN device, one of the m first-granularity tributary slots into n second-granularity tributary slots, wherein a rate of the first-granularity tributary slot is n times that of the second-granularity tributary slot, m is a positive integer greater than 1, and n is a positive integer greater than 1; mapping, by the OTN device, a first client signal onto a payload in which one or more of the n second-granularity tributary slots are located; and adding an overhead of the first-granularity tributary slot and an overhead of the second-granularity tributary slot for the OPU signal, to generate an optical data unit,ODU, signal; and sending the ODU signal, and the method further comprises: dividing, by the OTN device, another first-granularity tributary slot of the m first-granularity tributary slots into x third-granularity tributary slots based on at least one of a rate, a transmission distance, and a modulation format of a received second client signal, wherein the rate of the first-granularity tributary slot is x times that of the third-granularity tributary slot, and x is a positive integer greater than 1. dividing, by the OTN device, another first-granularity tributary slot of the m first-granularity tributary slots into x third-granularity tributary slots based on at least one of a rate, a transmission distance, and a modulation format of a received second client signal, wherein the rate of the first-granularity tributary slot is x times that of the third-granularity tributary slot, and x is a positive integer greater than 1.
A camera module comprising: a housing including a first housing and a second housing, the second housing comprising a portion disposed under the first housing; a lens barrel disposed in the first housing; an image sensor disposed under the second housing; a circuit board on which the image sensor is mounted, the image sensor being electrically connected to the circuit board, a first elastic member connecting the lens barrel and the first housing; first and second driving units (710; 720) interacting with each other to move the lens barrel relative to the first housing; a third driving unit interposed between the second driving unit and the circuit board and interacting with the second driving unit to move the first housing such that the lens barrel moves relative to the second housing; a lens assembly disposed in the lens barrel; and wherein the first driving unit and the second driving unit are spaced apart from each other, wherein the second driving unit and the third driving unit are spaced apart from each other, wherein the first driving unit and the third driving unit each is configured to receive a driving signal from the circuit board, wherein the third driving unit is disposed between a lower portion of the second driving unit and the second housing, and wherein the circuit board is disposed under the second housing. a housing including a first housing and a second housing, the second housing comprising a portion disposed under the first housing; a lens barrel disposed in the first housing; an image sensor disposed under the second housing; a circuit board on which the image sensor is mounted, the image sensor being electrically connected to the circuit board, a first elastic member connecting the lens barrel and the first housing; first and second driving units (710; 720) interacting with each other to move the lens barrel relative to the first housing; a third driving unit interposed between the second driving unit and the circuit board and interacting with the second driving unit to move the first housing such that the lens barrel moves relative to the second housing; a lens assembly disposed in the lens barrel; and wherein the first driving unit and the second driving unit are spaced apart from each other, wherein the second driving unit and the third driving unit are spaced apart from each other, wherein the first driving unit and the third driving unit each is configured to receive a driving signal from the circuit board, wherein the third driving unit is disposed between a lower portion of the second driving unit and the second housing, and wherein the circuit board is disposed under the second housing.
A backpack comprising: ∘ a wind and heat insulating material, the wind and heat insulating material forms a body heated compartment, and ∘ a seal, the seal is connected to the body heated compartment and the seal is configured to contact a user of the backpack for sealing the body heated compartment against the user, wherein the wind and heat insulating material combined with the seal allows for body heat from the user of the backpack to heat the body heated compartment. ∘ a wind and heat insulating material, the wind and heat insulating material forms a body heated compartment, and ∘ a seal, the seal is connected to the body heated compartment and the seal is configured to contact a user of the backpack for sealing the body heated compartment against the user,
oc crystalline form of the L-arginine salt of perindopril, of formula: characterised by the following X-ray powder diffraction peaks, measured using a diffractometer with a copper anti-cathode and a Kβ (Ni) filter and expressed in terms of Bragg's angle 2 theta (°): 4.5, 7.9 and 13.5.
Control member that can be operated by a pilot, the control member being intended for controlling an engine system that exerts thrust in an aircraft, the control member comprising a shaft and a movable assembly, the movable assembly being arranged on the shaft and being movable relative to said shaft, the movable assembly comprising a grip, characterised in that the grip is connected to the shaft by means of a helical connection such that rotating the grip about the shaft causes the grip and the movable assembly to move translationally along the shaft, the grip being translationally movable in a first translational direction, and the grip being translationally movable in a second translational direction counter to the first translational direction.
A thermal dissipation and electrical isolating device for use in an electronic device, comprising a laminate of at least one graphite sheet and at least a first adhesive layer being configured to prevent the graphite sheet from contacting the electronic device in order to prevent galvanic corrosions and circuit faults, wherein the laminate has a horizontal thermal conductivity of more than 220 W/mK, and wherein the graphite sheet is sandwiched between two adhesive layers, characterized in that the adhesive layers bleed out at their ends and thus completely enclose the graphite sheet.
Light-emitting module of terrestrial vehicle comprising: - at least one semiconductor light source including a mostly semiconductor material substrate, the substrate having a first face and a second face, the light source further including electroluminescent elements with submillimeter dimensions extending from the first face of the substrate; and - at least one heatsink cooperating with the second face of the substrate to evacuate the heat produced by the light source characterized in that: - the substrate is supplied with electricity via a printed circuit, the printed circuit board skirting the substrate; - the heatsink is arranged against the second face of the substrate via an intermediate element that comprises one or more electronic control devices. - at least one semiconductor light source including a mostly semiconductor material substrate, the substrate having a first face and a second face, the light source further including electroluminescent elements with submillimeter dimensions extending from the first face of the substrate; and - at least one heatsink cooperating with the second face of the substrate to evacuate the heat produced by the light source characterized in that: - the substrate is supplied with electricity via a printed circuit, the printed circuit board skirting the substrate; - the heatsink is arranged against the second face of the substrate via an intermediate element that comprises one or more electronic control devices. - the substrate is supplied with electricity via a printed circuit, the printed circuit board skirting the substrate; - the heatsink is arranged against the second face of the substrate via an intermediate element that comprises one or more electronic control devices.
System for monitoring a train, the system comprising: a first signal unit for arrangement at a first train end of the train and a second signal unit for arrangement at a second train end of the train, wherein the first signal unit comprises a first receiving unit (12.1) which is designed to receive first signal data from a tracking system on at least one first frequency and wherein the system further comprises an evaluation unit which is designed to determine position data of the first receiving unit (12.1) from the first signal data, and wherein the second signal unit comprises a second receiving unit (14.1) which is designed to receive second signal data from a tracking system on the at least one first frequency, characterized in that the second signal unit has a first frequency converter (14.2) which is designed to convert the second signal data to at least one second frequency and to transmit said second signal data analog on the at least one second frequency, and in that the first receiving unit (12.1) is designed to receive the second signal data on the at least one second frequency and the first signal unit has a second frequency converter (12.2) which is designed to convert the second signal data from the at least one second frequency to the at least one first frequency and in that the evaluation unit is designed to determine position data of the second receiving unit (14.1) from the second signal data. a first signal unit for arrangement at a first train end of the train and a second signal unit for arrangement at a second train end of the train, wherein the first signal unit comprises a first receiving unit (12.1) which is designed to receive first signal data from a tracking system on at least one first frequency and wherein the system further comprises an evaluation unit which is designed to determine position data of the first receiving unit (12.1) from the first signal data, and wherein the second signal unit comprises a second receiving unit (14.1) which is designed to receive second signal data from a tracking system on the at least one first frequency, characterized in that the second signal unit has a first frequency converter (14.2) which is designed to convert the second signal data to at least one second frequency and to transmit said second signal data analog on the at least one second frequency, and in that the first receiving unit (12.1) is designed to receive the second signal data on the at least one second frequency and the first signal unit has a second frequency converter (12.2) which is designed to convert the second signal data from the at least one second frequency to the at least one first frequency and in that the evaluation unit is designed to determine position data of the second receiving unit (14.1) from the second signal data.
A power converter device, comprising: a switching circuit, which is configured to convert DC to AC; a PWM controller means (5, 8), which is configured to control ON or OFF of said switching circuit; a means, which is configured to detect or estimate current flowing through a permanent magnet synchronous motor; and a means, which is configured to execute DC braking of said permanent magnet synchronous motor, and a DC braking maximum current setup value, which is determined from an outside or is determined in advance within an inside, characterized by; a PWM all-phases cutoff function and a zero vector output function within said PWM controller means (5, 8), wherein said controller means (5, 8) is arranged to repeatedly output a PWM all-phases cutoff and a zero vector output alternately, if a current value, which is obtained by said means for detecting or estimating the current, exceeds said DC braking maximum current setup value, when running DC current to the permanent magnet synchronous motor, so as to execute DC braking for obtaining a braking power, whereby the current flowing through the permanent magnet synchronous motor is supressed. a switching circuit, which is configured to convert DC to AC; a PWM controller means (5, 8), which is configured to control ON or OFF of said switching circuit; a means, which is configured to detect or estimate current flowing through a permanent magnet synchronous motor; and a means, which is configured to execute DC braking of said permanent magnet synchronous motor, and a DC braking maximum current setup value, which is determined from an outside or is determined in advance within an inside, characterized by; a PWM all-phases cutoff function and a zero vector output function within said PWM controller means (5, 8), wherein said controller means (5, 8) is arranged to repeatedly output a PWM all-phases cutoff and a zero vector output alternately, if a current value, which is obtained by said means for detecting or estimating the current, exceeds said DC braking maximum current setup value, when running DC current to the permanent magnet synchronous motor, so as to execute DC braking for obtaining a braking power, whereby the current flowing through the permanent magnet synchronous motor is supressed.
A perfusion cannula for placement of an access, having a cannula wall and a perfusion lumen which is surrounded by the cannula wall and in which a fluid flow can flow through the perfusion cannula; wherein the cannula wall is formed by an at least approximately cylindrical inner surface of a circumferential inner sleeve surface and by an at least approximately cylindrical outer surface of a circumferential outer sleeve surface, wherein the sleeve surfaces (12a, 12b) are both arranged concentrically, and wherein the perfusion cannula furthermore comprises at least one sensor lumen (16.1, 16.2, 16.3, 16.4, 16.5) and at least one sensor device (17, 19), which is arranged at least partially in the sensor lumen (16.1, 16.2, 16.3, 16.4, 16.5), characterized in that at least one sensor lumen (16.5) is arranged in an inwardly protruding part of the cannula wall, the wall thickness (d) of which is of a comparatively thin construction in relation to a diameter of the sensor lumen, expect for the inwardly protruding part of the cannula wall, and that at least one sensor lumen (16.5) of the sensor lumina (16.1, 16.2, 16.3, 16.4 and 16.5)comprises as a sensor device a pressure sensor.
Curtain wall comprising one or more mullions and one or more transoms, wherein the one or more mullions extend vertically, wherein the one or more mullions are composed of at least an inner profile and an outer profile connected by means of one or more plastic profiles, wherein the inner profile, the outer profile and the one or more plastic profiles cannot be disassembled from one another, wherein the one or more mullions are provided on two opposite sides with a groove with an access opening, wherein the one or more transoms extend horizontally between two mullions and their ends are inserted in the grooves of these two mullions, wherein the abovementioned curtain wall comprises at least an inwardly openable panel, wherein the openable panel is installed between two mullions, wherein the two mullions adjacent to the openable panel comprise one or more inner chambers in their inner profile, wherein the two mullions adjacent to the openable panel are locally adapted for the installation of the openable panel, characterized in that the local adaptation of the two mullions adjacent to the openable panel comprises at least the absence of a laterally directed wall of one of the one or more inner chambers of each of the two mullions along a height of the openable panel, wherein the openable panel is installed in the local adaptation of the two mullions adjacent to the openable panel such that, when the openable panel is closed, the openable panel is not distinguishable from a fixedly fitted panel, neither from the inside nor from the outside of the curtain wall. wherein the one or more mullions extend vertically, wherein the one or more mullions are composed of at least an inner profile and an outer profile connected by means of one or more plastic profiles, wherein the inner profile, the outer profile and the one or more plastic profiles cannot be disassembled from one another, wherein the one or more mullions are provided on two opposite sides with a groove with an access opening, wherein the one or more transoms extend horizontally between two mullions and their ends are inserted in the grooves of these two mullions, wherein the abovementioned curtain wall comprises at least an inwardly openable panel, wherein the openable panel is installed between two mullions, wherein the two mullions adjacent to the openable panel comprise one or more inner chambers in their inner profile, wherein the two mullions adjacent to the openable panel are locally adapted for the installation of the openable panel, characterized in that the local adaptation of the two mullions adjacent to the openable panel comprises at least the absence of a laterally directed wall of one of the one or more inner chambers of each of the two mullions along a height of the openable panel, wherein the openable panel is installed in the local adaptation of the two mullions adjacent to the openable panel such that, when the openable panel is closed, the openable panel is not distinguishable from a fixedly fitted panel, neither from the inside nor from the outside of the curtain wall.
A showerhead comprising a housing defining a chamber in fluid communication with a fluid inlet and at least one fluid outlet, the housing further defining an annular recess and having a first engagement feature provided in a sidewall defining the annular recess; a turbine received within the chamber; and a shutter having a portion that is at least partially received within the annular recess of the housing and operatively associated with the turbine, the shutter comprising an upper shutter portion formed as a planar body and defining a fluid obstructing member; and a lower shutter portion formed as a planar body, the lower shutter portion positioned below the upper shutter portion and having a second engagement feature, wherein the combination of the upper shutter portion and the lower shutter portion forms a multi-planar body; rotation of the turbine causes rotation of the shutter; engagement of the first engagement feature with the second engagement feature causes a rotation rate of the shutter that is less than a rotation rate of the turbine; and as the shutter rotates, the fluid obstructing member fluidly connects and disconnects the fluid inlet and the at least one fluid outlet by covering and uncovering the at least one fluid outlet. an upper shutter portion formed as a planar body and defining a fluid obstructing member; and a lower shutter portion formed as a planar body, the lower shutter portion positioned below the upper shutter portion and having a second engagement feature, wherein
A method for the interchange of device-specific data between fieldbus devices of a first fieldbus and a fieldbus device of a second fieldbus, the method comprising: connecting the first fieldbus for a communication via a first gateway to a common Ethernet Network; connecting the second fieldbus for a communication via a second gateway to the common Ethernet network; wherein the communication via the Ethernet network occurs according to the client server communication principle; wherein the first gateway reacts on the Ethernet Network side as a web service server and wherein the second gateway reacts on the Ethernet Network side as a web service client, wherein the communication between the first gateway and the second gateway occurs via a web service protocol, wherein a fieldbus message (FBM-REQ) transmitted by the fieldbus device of the second fieldbus to the second gateway is transformed in the second gateway into a web service message (WS-SUB; WS-REQ), and wherein the web service message (WS-SUB; WS-REQ) is transmitted via the Ethernet network and received by the first gateway and transformed into a fieldbus message (FBS-REQ) of the first fieldbus and transmitted to the fieldbus devices, charactericed in, that the fieldbus devices are configured as fieldbus slaves and the configuration data thereof and current device data are configured and stored in a database, wherein the database is implemented in the web service client, that the web service client transmits a list of device data necessary to the web service server, that the necessary device data of the fieldbus slaves are requested by a fieldbus request FBS-request by the first gateway, acting as fieldbus master at the fieldbus side, by using a polling method, that the web service server returns only changes of data values as a fieldbus massage embedded in the web service protocol according to an eventing mechanism to the web service client, wherein the data of the database are updated in the web service client on the basis of the change data values and that the second gateway reacting as fieldbus slave at the fieldbus side responds immediately with a filebus response FBM-Response to a fieldbus query FBM-Request of the fieldbus master with the current device data from the database.