mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the temperature in an oil chamber of a transmission device, wherein in the oil chamber is disposed a gear set of the transmission device, characterised in that for determining the temperature in the oil chamber an overall energy level is determined for the oil chamber, wherein an initial value for the overall energy level at an operation start of the transmission device is determined with the following steps: - determining a normed shut-off time as function of an outside temperature and of the overall energy level which exist when the transmission device is shut-off prior to operation start, wherein the normed shut-off time is equal to the time duration after which after shut-off the temperature of the oil chamber has reached the outside temperature, - determining a corrected shut-off time as function of the normed shut-off time and of a measured shut-off time, wherein the measured shut-off time is equal to the time duration measured by means of a timer from the shut-off until the operation start, and - determining the initial value as function of the corrected shut-off time and of the current outside temperature. - determining a normed shut-off time as function of an outside temperature and of the overall energy level which exist when the transmission device is shut-off prior to operation start, wherein the normed shut-off time is equal to the time duration after which after shut-off the temperature of the oil chamber has reached the outside temperature, - determining a corrected shut-off time as function of the normed shut-off time and of a measured shut-off time, wherein the measured shut-off time is equal to the time duration measured by means of a timer from the shut-off until the operation start, and - determining the initial value as function of the corrected shut-off time and of the current outside temperature.
A method for micro-batch stream processing of events comprising: configuring a stream processor to micro-batch incoming events from a stream source (204, 206, 208); generating a single timestamp for a micro-batch of the incoming events; receiving the micro-batch of the incoming events from the stream source; assigning the single timestamp to each event of the micro-batch; generating, based at least on an evenly distributed top off algorithm configured with a maximum rate for receiving events, separate timestamp values for each respective event of the micro-batch; assigning, for each respective event of the micro-batch, an individual one of the separate timestamp values; and processing the events using a continuous query language engine. configuring a stream processor to micro-batch incoming events from a stream source (204, 206, 208); generating a single timestamp for a micro-batch of the incoming events; receiving the micro-batch of the incoming events from the stream source; assigning the single timestamp to each event of the micro-batch; generating, based at least on an evenly distributed top off algorithm configured with a maximum rate for receiving events, separate timestamp values for each respective event of the micro-batch; assigning, for each respective event of the micro-batch, an individual one of the separate timestamp values; and processing the events using a continuous query language engine.
A method associated with device to device, D2D, signaling by a wireless transmit/receive device, WTRU (102a-d), comprising: determining a D2D discovery signal schedule indicating allowed subframes to transmit a D2D discovery signal; determining a scrambling sequence, wherein the scrambling sequence is generated using a scrambling sequence generator that is initialized with a pre-configured fixed value at the start of each subframe associated with the D2D discovery signal; determining to transmit the D2D discovery signal on one or more resource blocks associated with the allowed subframes; and transmitting the D2D discovery signal using the scrambling sequence, wherein the D2D discovery signal comprises a payload and a guard period, wherein the guard period is included at the end of the D2D discovery signal. determining a D2D discovery signal schedule indicating allowed subframes to transmit a D2D discovery signal; determining a scrambling sequence, wherein the scrambling sequence is generated using a scrambling sequence generator that is initialized with a pre-configured fixed value at the start of each subframe associated with the D2D discovery signal; determining to transmit the D2D discovery signal on one or more resource blocks associated with the allowed subframes; and transmitting the D2D discovery signal using the scrambling sequence, wherein the D2D discovery signal comprises a payload and a guard period, wherein the guard period is included at the end of the D2D discovery signal.
A method, comprising: positioning an object (106, 206, 306) on a support (108, 208, 308) relative to a radiation source (102, 202, 302) at a first gantry angle (α Tx) such that a source-to-surface distance is defined between the radiation source (102, 202, 302) at the first gantry angle (α Tx) and a point on a surface of the object (106, 206, 306), the radiation source (102, 202, 302) being supported by a rotating gantry; positioning the radiation source (102, 202, 302) at a second gantry angle predetermined at least based on a desired value of SSD at the first gantry angle (α Tx), wherein the positioning of the radiation source (102, 202, 302) at the second gantry angle allows a ray (126, 226, 326) of radiation from the radiation source (102, 202, 302) to align with a surface or be tangent to a point on a surface located at the desired value of SSD; acquiring an image showing at least a portion of the surface of the object (106, 206, 306) using the radiation from the radiation source (102, 202, 302) at the second gantry angle; verifying, based on an analysis of the acquired image, if the point on the surface of the object (106, 206, 306) is positioned at the desired value of SSD. positioning an object (106, 206, 306) on a support (108, 208, 308) relative to a radiation source (102, 202, 302) at a first gantry angle (α Tx) such that a source-to-surface distance is defined between the radiation source (102, 202, 302) at the first gantry angle (α Tx) and a point on a surface of the object (106, 206, 306), the radiation source (102, 202, 302) being supported by a rotating gantry; positioning the radiation source (102, 202, 302) at a second gantry angle predetermined at least based on a desired value of SSD at the first gantry angle (α Tx), wherein the positioning of the radiation source (102, 202, 302) at the second gantry angle allows a ray (126, 226, 326) of radiation from the radiation source (102, 202, 302) to align with a surface or be tangent to a point on a surface located at the desired value of SSD; acquiring an image showing at least a portion of the surface of the object (106, 206, 306) using the radiation from the radiation source (102, 202, 302) at the second gantry angle; verifying, based on an analysis of the acquired image, if the point on the surface of the object (106, 206, 306) is positioned at the desired value of SSD.
A compound barb medical device comprising: an elongate body wherein the elongate body is a monofilament suture including an outer surface; at least one barb extending from the elongated body and defining an inner surface, the inner surface including: a first linear portion disposed at a first orientation relative to a longitudinal axis of the elongate body; and a second linear portion disposed at a second orientation relative to the longitudinal axis of the elongate body, characterized in that the first linear portion is disposed at a first angle from about 30 degrees to about 50 degrees relative to the longitudinal axis of the elongate body and a ratio cut depth of approximately 1% to about 40% of the diameter of the elongate body and in that the second linear portion is disposed at a second angle from about 0 degree to about 90 degrees relative to the longitudinal axis of the elongate body and a ratio cut depth of approximately 5% to about 50% of the diameter of the elongate body. an elongate body wherein the elongate body is a monofilament suture including an outer surface; at least one barb extending from the elongated body and defining an inner surface, the inner surface including: a first linear portion disposed at a first orientation relative to a longitudinal axis of the elongate body; and a second linear portion disposed at a second orientation relative to the longitudinal axis of the elongate body, characterized in that the first linear portion is disposed at a first angle from about 30 degrees to about 50 degrees relative to the longitudinal axis of the elongate body and a ratio cut depth of approximately 1% to about 40% of the diameter of the elongate body and in that the second linear portion is disposed at a second angle from about 0 degree to about 90 degrees relative to the longitudinal axis of the elongate body and a ratio cut depth of approximately 5% to about 50% of the diameter of the elongate body. a first linear portion disposed at a first orientation relative to a longitudinal axis of the elongate body; and a second linear portion disposed at a second orientation relative to the longitudinal axis of the elongate body, characterized in that the first linear portion is disposed at a first angle from about 30 degrees to about 50 degrees relative to the longitudinal axis of the elongate body and a ratio cut depth of approximately 1% to about 40% of the diameter of the elongate body and in that the second linear portion is disposed at a second angle from about 0 degree to about 90 degrees relative to the longitudinal axis of the elongate body and a ratio cut depth of approximately 5% to about 50% of the diameter of the elongate body.
A monolithic, side pumped solid-state laser comprising a laser resonator structure comprised of a laser gain medium having a longitudinal axis, and comprising a conductive cooler, wherein the laser resonator structure emits a wavelength in the range of 1700 nm to 3200 nm and comprises end faces forming a linear optical path resonant cavity there between, wherein the end faces comprising at least partially reflecting laser mirrors (4a, 4b), one high reflector and an output coupler, deposited on the end faces, wherein the laser gain medium is of circular-cylindrical shape or elliptical-cylindrical shape and comprising a side face for receiving pump light of a pump source, wherein the pump light is generated by a diode laser wherein the conductive cooler consisting of a solid material, in particular metal, ceramics or a crystalline material, and comprises a reflector arranged opposite to the side face with respect to the longitudinal axis, whereby the laser gain medium is a low gain material with a stimulated emission cross section equal or less than that of Er:YAG namely <= 3,0 * 10 -20 cm 2, and in that the conductive cooler comprises contact faces for contacting and also holding the laser gain medium, and in that the laser high reflector is deposited directly on the gain medium and the output coupler is deposited directly on the opposite end on the gain medium, and in that the conductive cooler comprising a cooler cavity arranged beside the laser gain medium and arranged opposite to the side face, wherein the pump light reflector is arranged in the cooler cavity.
A multimedia data processing method, performed by a signaling processing module deployed on a remote node and a media processing module deployed on an edge computing node, the method comprising: establishing, by the signaling processing module, a session between a terminal device and the media processing module, and controlling the session by the signaling processing module, wherein a user plane function, UPF, entity in the edge computing node communicates with the media processing module deployed on the edge computing node; receiving, by the media processing module in a case that the session is established between the media processing module and the terminal device, multimedia data transmitted by the terminal device through the UPF entity in the edge computing node, wherein the multimedia data includes video data, and processing the multimedia data; and performing, by the media processing module deployed on the edge computing node, an analysis of the video based on a graphics processing unit, GPU, to output structured video data; transmitting, by the media processing module deployed on the edge computing node, the structured video data to the remote node; and performing, by the remote node, an analysis based on the structured video data. establishing, by the signaling processing module, a session between a terminal device and the media processing module, and controlling the session by the signaling processing module, wherein a user plane function, UPF, entity in the edge computing node communicates with the media processing module deployed on the edge computing node; receiving, by the media processing module in a case that the session is established between the media processing module and the terminal device, multimedia data transmitted by the terminal device through the UPF entity in the edge computing node, wherein the multimedia data includes video data, and processing the multimedia data; and performing, by the media processing module deployed on the edge computing node, an analysis of the video based on a graphics processing unit, GPU, to output structured video data; transmitting, by the media processing module deployed on the edge computing node, the structured video data to the remote node; and performing, by the remote node, an analysis based on the structured video data.
An artificial intervertebral spacer, said spacer being adapted to fit within an intervertebral space between adjacent first and second vertebral bodies, each of said first and second vertebral bodies having a superior surface and an inferior surface, the intervertebral space being bounded by the inferior surface of the first vertebral body and the superior surface of the second vertebral body, the artificial intervertebral spacer comprising: - resilient first and second arms (12, 14) each having first and second ends; - the first and second arms being adapted for elastically biasing apart said adjacent vertebral bodies when said spacer is in use, wherein the first arm is adapted to bear against the inferior surface of the first vertebral body and the second arm is adapted to bear against the superior surface of the second vertebral body; - the first ends of each of the arms being connected together; characterized in that: - the first and second arms (12, 14) diverge from each other to form a generally "V" shaped structure, whereby the arms (12, 14) divergently extend in a common direction and are generally separated from each other and; - the first ends of each of the arms are joined together along a length thereof to form a third arm, wherein the third arm extends in a direction opposite from the second ends of the first and second arms whereby the spacer has a generally Y-shaped structure. - resilient first and second arms (12, 14) each having first and second ends; - the first and second arms being adapted for elastically biasing apart said adjacent vertebral bodies when said spacer is in use, wherein the first arm is adapted to bear against the inferior surface of the first vertebral body and the second arm is adapted to bear against the superior surface of the second vertebral body; - the first ends of each of the arms being connected together; - the first and second arms (12, 14) diverge from each other to form a generally "V" shaped structure, whereby the arms (12, 14) divergently extend in a common direction and are generally separated from each other and; - the first ends of each of the arms are joined together along a length thereof to form a third arm, wherein the third arm extends in a direction opposite from the second ends of the first and second arms whereby the spacer has a generally Y-shaped structure.
A rechargeable battery jump starting device, the rechargeable battery jump starting device comprising: a 12V or 24V power supply; a supplemental power supply to increase voltage of the 12V or 24V power supply, wherein the 12V or 24V power supply and the supplemental power supply are configured as separate battery packs; a controlled impedance comprising a current limit module, a cable impedance, and a switch impedance for maximum safe current delivery during a pre-conditioning stage; and a discharged vehicle battery pre-conditioning system comprising a microcontroller unit configured to, during a pre-conditioning stage of boosting a discharged vehicle battery prior to jump starting the vehicle engine, switch in the controlled impedance and the supplemental power supply with the 12V or 24V power supply for increasing an operating voltage, wherein the rechargeable battery jump starting device is configured to use the rising voltage of the discharged vehicle battery to automatically turn off the pre-conditioning stage; and a device for connecting the rechargeable battery jump starting device to the discharged vehicle battery for jump starting the vehicle engine. a 12V or 24V power supply; a supplemental power supply to increase voltage of the 12V or 24V power supply, wherein the 12V or 24V power supply and the supplemental power supply are configured as separate battery packs; a controlled impedance comprising a current limit module, a cable impedance, and a switch impedance for maximum safe current delivery during a pre-conditioning stage; and a discharged vehicle battery pre-conditioning system comprising a microcontroller unit configured to, during a pre-conditioning stage of boosting a discharged vehicle battery prior to jump starting the vehicle engine, switch in the controlled impedance and the supplemental power supply with the 12V or 24V power supply for increasing an operating voltage, wherein the rechargeable battery jump starting device is configured to use the rising voltage of the discharged vehicle battery to automatically turn off the pre-conditioning stage; and a device for connecting the rechargeable battery jump starting device to the discharged vehicle battery for jump starting the vehicle engine.
Multicomponent gear wheel with the following features: - an outer part with a toothed rim, - an inner part, - a connecting part made of plastic for form-fit connection of the inner part and outer part, wherein the outer part is arranged on an outer peripheral face and the inner part on an inner peripheral face of the connecting part, and the connecting part is also provided with a plurality of depressions (48, 49) on two opposing outer main faces (46, 47) lying perpendicular to a rotation axis, characterized by the following features: - the depressions in the first main face of the connecting part, in comparison with the depressions in the second main face of the connecting part, are arranged offset to each other radially and/or in the circumferential direction relative to the rotation axis, such that the depressions of the second main face each lie between the depressions of the first main face, and - at least some of the depressions (48, 49) on the first main face or on the second main face extend over more than half the width of the connecting part between the first main face and the second main face, wherein the depressions (48. 49) are configured pot-like and each have a base (48a, 49a). - an outer part with a toothed rim, - an inner part, - a connecting part made of plastic for form-fit connection of the inner part and outer part, wherein the outer part is arranged on an outer peripheral face and the inner part on an inner peripheral face of the connecting part, and the connecting part is also provided with a plurality of depressions (48, 49) on two opposing outer main faces (46, 47) lying perpendicular to a rotation axis, - the depressions in the first main face of the connecting part, in comparison with the depressions in the second main face of the connecting part, are arranged offset to each other radially and/or in the circumferential direction relative to the rotation axis, such that the depressions of the second main face each lie between the depressions of the first main face, and - at least some of the depressions (48, 49) on the first main face or on the second main face extend over more than half the width of the connecting part between the first main face and the second main face, wherein the depressions (48. 49) are configured pot-like and each have a base (48a, 49a).
A natural killer cell that expresses all or a functional portion of interleukin-15 (IL-15), wherein: all or a functional portion of the IL-15 is fused to all or a portion of a transmembrane protein, wherein the IL-15, or functional portion thereof, is expressed as a membrane-bound polypeptide (mbIL-15) by the NK cell, wherein the all or a portion of the transmembrane protein is selected from CD8α, CD4, CD3ε, CD3γ, CD3δ, CD3ζ, CD28, and CD137; wherein the NK cell expressing all or a functional portion of IL-15 exhibits enhanced survival and expansion in the absence of IL-2, is able to regulate NK cell and T cell activation and proliferation, and/or support NK cell development from hematopoietic stem cells as compared to an NK cell not expressing all or a functional portion of IL-15. all or a functional portion of the IL-15 is fused to all or a portion of a transmembrane protein, wherein the IL-15, or functional portion thereof, is expressed as a membrane-bound polypeptide (mbIL-15) by the NK cell, wherein the all or a portion of the transmembrane protein is selected from CD8α, CD4, CD3ε, CD3γ, CD3δ, CD3ζ, CD28, and CD137; wherein the NK cell expressing all or a functional portion of IL-15 exhibits enhanced survival and expansion in the absence of IL-2, is able to regulate NK cell and T cell activation and proliferation, and/or support NK cell development from hematopoietic stem cells as compared to an NK cell not expressing all or a functional portion of IL-15.