mhurhangee/ep-ind-claims huggingface dataset:
A three-dimensional weave-forming method for composites, comprising the following steps: a) dividing the CAD model into layers according to the structural performance and the overall dimension features of a component; b) disposing weaving guiding poles on a controllable digital layout template according to the feature requirement of the component and based on preset rules and intervals; d) selecting, in conjunction with the performance requirement of the component, filaments of the corresponding material as raw material for weaving processing, winding the filaments around the weaving guiding poles to weave the patterns in this layer; e) descending the controllable digital layout template in the thickness by one layer after the weaving of one layer thickness is finished; f) weaving layer by layer according to Step e, until the whole component is finished; g) dismounting the component from the controllable digital layout template; and h) dipping the component in resin to finish the manufacture of the composite part, characterized in that, further comprising step c which is between the step b and the step d, during the step c, in the direction Z, passing guiding sleeves through the hollow guiding poles and evaginating the guiding sleeves, and then fixing the guiding sleeves on the controllable digital template; and during the step a, after dividing the CAD model into layers, optimizing grid filling paths for each single layer; and during the step d, locking the guiding sleeves; and during the step e, while descending the controllable digital layout template, driving the guiding sleeves to expose outside a preset distance, to form a new layer of layout template in preparation for the weaving of the next layer; and during the step g, after dismounting the component from the controllable digital layout template, sewing the whole component along the guiding sleeves. a) dividing the CAD model into layers according to the structural performance and the overall dimension features of a component; b) disposing weaving guiding poles on a controllable digital layout template according to the feature requirement of the component and based on preset rules and intervals; d) selecting, in conjunction with the performance requirement of the component, filaments of the corresponding material as raw material for weaving processing, winding the filaments around the weaving guiding poles to weave the patterns in this layer; e) descending the controllable digital layout template in the thickness by one layer after the weaving of one layer thickness is finished; f) weaving layer by layer according to Step e, until the whole component is finished; g) dismounting the component from the controllable digital layout template; and h) dipping the component in resin to finish the manufacture of the composite part,
A method of performing data transmission flow control wherein the method comprises: receiving, at an interface device coupled between a computer and a video client, a stream of input video data from the video client according to a first format, wherein the video client is unable to transfer the stream of input video data to the interface device according to a bus protocol used to exchange data between the interface device and the computer; converting, at the interface device, the received input video data to scanned lines; deriving, at the interface device, a vertical blanking interval based on the conversion of the scanned lines; organizing, at the interface device, the scanned lines into frames of data that include video data; and at each vertical blanking interval, transmitting one of the frames of data from the interface device to the computer according to the bus protocol, wherein the computer synchronizes the display of the video data from the frames of data by deriving the vertical blanking interval from a frequency of the frames of data received from the interface device, wherein the interface device and the computer share an external clock for synchronizing data transmission. receiving, at an interface device coupled between a computer and a video client, a stream of input video data from the video client according to a first format, wherein the video client is unable to transfer the stream of input video data to the interface device according to a bus protocol used to exchange data between the interface device and the computer; converting, at the interface device, the received input video data to scanned lines; deriving, at the interface device, a vertical blanking interval based on the conversion of the scanned lines; organizing, at the interface device, the scanned lines into frames of data that include video data; and at each vertical blanking interval, transmitting one of the frames of data from the interface device to the computer according to the bus protocol, wherein the computer synchronizes the display of the video data from the frames of data by deriving the vertical blanking interval from a frequency of the frames of data received from the interface device, wherein the interface device and the computer share an external clock for synchronizing data transmission.
A method of manufacturing a component (66, 68) of a turbomolecular pump, wherein the component (66, 68) is manufactured by means of a generative manufacturing process; and wherein the component is a rotor disk or a stator disk of a turbomolecular pump stage of a turbomolecular pump, with the disk (66, 68) having a base body, in particular a support ring, and blades (134, 140) arranged at the base body, and with the base body being formed from a material, namely aluminum, characterized in that the blades (134, 140) are formed from another material, in particular titanium.
Measuring device for determining hardness values of resilient materials, comprising - a penetrator which is surrounded in the radial direction by a support plate and which is connected to a measuring apparatus for determining a penetration depth in a test sample, - the support plate being arranged in the region of a lower part and so as to protrude out of an end face delimiting the lower part, and - a first sensor unit for measuring the temperature of a surface of the test sample, the first sensor unit being contactless and designed as an emitter and detector for infrared radiation, - it being possible to transmit an output signal of the first sensor unit for measuring the temperature of a surface of the test sample and an output signal of the measuring apparatus for determining the hardness of the test sample, characterized in that - the end face has a first measurement opening outside the support plate, which opening is designed such that the first sensor unit arranged inside the lower part behind the first measurement opening can measure the temperature of a surface of the test sample and - the first measurement opening having a window incorporated in the end face, which window is partially or completely transparent to infrared radiation. - a penetrator which is surrounded in the radial direction by a support plate and which is connected to a measuring apparatus for determining a penetration depth in a test sample, - the support plate being arranged in the region of a lower part and so as to protrude out of an end face delimiting the lower part, and - a first sensor unit for measuring the temperature of a surface of the test sample, the first sensor unit being contactless and designed as an emitter and detector for infrared radiation, - it being possible to transmit an output signal of the first sensor unit for measuring the temperature of a surface of the test sample and an output signal of the measuring apparatus for determining the hardness of the test sample, - the end face has a first measurement opening outside the support plate, which opening is designed such that the first sensor unit arranged inside the lower part behind the first measurement opening can measure the temperature of a surface of the test sample and - the first measurement opening having a window incorporated in the end face, which window is partially or completely transparent to infrared radiation.
A wirelaying apparatus for laying a wire into a working surface of a workpiece, the apparatus comprising: a retainer for retaining the workpiece; a wirelaying tool having a cutting tip for, in use, making a cut into the working surface of the workpiece in response to relative movement of the wirelaying tool with respect to the retainer, wherein the wirelaying tool comprises an aperture for delivering a wire through the cutting tip directly into the cut in the working surface; and a tool head arranged to carry the wirelaying tool mounted thereon and to move the wirelaying tool relative to the retainer, wherein the wirelaying tool is rotatable about a centre of rotation; and the wirelaying tool is mounted in the tool head such that the cutting tip is offset from the centre of rotation such that the cutting tip is offset on a tangential line with respect to the centre of rotation and hence, in use, the tool head is arranged to rotate the wirelaying tool to make the cutting tip follow along an arcuate path while laying the wire into the working surface of the workpiece, and the tool head is arranged to move the cutting tip of the wirelaying tool about the centre of rotation such that the cutting tip is offset on a tangential line from the centre of rotation to move along the arcuate path. a retainer for retaining the workpiece; a wirelaying tool having a cutting tip for, in use, making a cut into the working surface of the workpiece in response to relative movement of the wirelaying tool with respect to the retainer, wherein the wirelaying tool comprises an aperture for delivering a wire through the cutting tip directly into the cut in the working surface; and a tool head arranged to carry the wirelaying tool mounted thereon and to move the wirelaying tool relative to the retainer,
A liquid formulation of etanercept, comprising etanercept; and methionine, or pharmaceutically acceptable salts thereof as a stabilizer, wherein the formulation has increased storage stability of etanercept compared to the formulation comprising arginine as a stabilizer, by reducing etanercept by-products that are produced due to denaturation during storage.
A method for uplink power control in a radio communication network, the method comprising: - determining, by a serving wireless access point or a wireless device served by the serving wireless access point, a relationship between a load of the serving wireless access point and a load of at least one neighbouring wireless access point, and - determining, by the serving wireless access point or the wireless device served by the serving wireless access point, an uplink transmission power for the wireless device, based on the determined load relationship. - determining, by a serving wireless access point or a wireless device served by the serving wireless access point, a relationship between a load of the serving wireless access point and a load of at least one neighbouring wireless access point, and - determining, by the serving wireless access point or the wireless device served by the serving wireless access point, an uplink transmission power for the wireless device, based on the determined load relationship.
An instep cover that covers a portion on an instep side of a wearer of a shoe upper configuring a shoe, the instep cover including a slit extending from a foot insertion opening for the wearer to insert a foot toward a toe, and a shoelace holding section that holds a shoelace for adjusting a spacing of the slit, wherein the shoelace holding section includes a holding unit configured by a hole formed in a slit edge region including a rim of the slit, and an annular strap being formed by connecting one end and the other end of a lace-like body to the slit edge region and having a length of being pulled out from the hole when an intermediate portion of the lace-like body is brought to a position of the hole, wherein a portion on a right side of a center line that divides the slit to right and left being a right side edge region and a portion on a left side being a left side edge region in the slit edge region of the instep cover, the shoelace holding section includes, a first holding unit (4U 1) configured by a right side hole formed in the right side edge region and a left side strap connecting to the left side edge region, and a second holding unit (4U 2) configured by a left side hole formed in the left side edge region and a right side strap connecting to the right side edge region and used as a pair with the first holding unit (4U 1); a position of the right side hole in a length direction of the instep cover is between a toe side connecting portion and a heel side connecting portion of the lace-like body configuring the right side strap; and a position of the left side hole in the length direction of the instep cover is between a toe side connecting portion and a heel side connecting portion of the lace-like body configuring the left side strap. a first holding unit (4U 1) configured by a right side hole formed in the right side edge region and a left side strap connecting to the left side edge region, and a second holding unit (4U 2) configured by a left side hole formed in the left side edge region and a right side strap connecting to the right side edge region and used as a pair with the first holding unit (4U 1); a position of the right side hole in a length direction of the instep cover is between a toe side connecting portion and a heel side connecting portion of the lace-like body configuring the right side strap; and a position of the left side hole in the length direction of the instep cover is between a toe side connecting portion and a heel side connecting portion of the lace-like body configuring the left side strap.
Method for detecting cavitation during the operation of a hydraulic machine, which has at least one impeller, with the aid of at least one structure-borne sound sensor, characterized in that the following method steps are carried out: detection of the signal of the at least one sensor over a time period which comprises at least one rotation of the impeller; bandpass filtering of the signal; preparation of the signal; temporal division of the signal into suitable time intervals, wherein the next three steps following this are carried out separately on the individual partial signals: spectral decomposition; application of an event counter in the frequency domain, wherein an event is present if a signal point lies above a fixed threshold value, wherein a number of successive signal points above the threshold value count as a single event; determination of the extent of the events in the frequency band; calculation of at least one characteristic value from the number and the extent of the events of all the partial signals, wherein a metric which contains a multiplication of the number of events with the extent of the events is used; comparison of the at least one characteristic value with at least one limit value. detection of the signal of the at least one sensor over a time period which comprises at least one rotation of the impeller; bandpass filtering of the signal; preparation of the signal; temporal division of the signal into suitable time intervals, wherein the next three steps following this are carried out separately on the individual partial signals: spectral decomposition; application of an event counter in the frequency domain, wherein an event is present if a signal point lies above a fixed threshold value, wherein a number of successive signal points above the threshold value count as a single event; determination of the extent of the events in the frequency band; calculation of at least one characteristic value from the number and the extent of the events of all the partial signals, wherein a metric which contains a multiplication of the number of events with the extent of the events is used; comparison of the at least one characteristic value with at least one limit value.
A method in a first wireless device for adjusting a Signal-to-Interference-plus-Noise-Ratio, SINR, target and a transmit rate, which the first wireless device is configured to transmit data to a second wireless device over a Device-to-Device, D2D, link, the method comprising: receiving a report on a control channel from the second wireless device, which report comprises a measurement of SINR on said control channel and/or a data channel transmitted by the first device, adjusting a transmit power for the control channel and/or the data channel based on the reported measurement of the SINR on said control channel and/or data channel transmitted by the first device, adjusting the SINR target and the transmit rate based on the adjusted transmit power, which the SINR target and the transmit rate are to be used when transmitting on the data channel over the D2D link to the second wireless device. Signal-to-Interference-plus-Noise-Ratio, SINR, target and a transmit rate, which the first wireless device is configured to transmit data to a second wireless device over a Device-to-Device, D2D, link, the method comprising: receiving a report on a control channel from the second wireless device, which report comprises a measurement of SINR on said control channel and/or a data channel transmitted by the first device, adjusting a transmit power for the control channel and/or the data channel based on the reported measurement of the SINR on said control channel and/or data channel transmitted by the first device, adjusting the SINR target and the transmit rate based on the adjusted transmit power, which the SINR target and the transmit rate are to be used when transmitting on the data channel over the D2D link to the second wireless device. receiving a report on a control channel from the second wireless device, which report comprises a measurement of SINR on said control channel and/or a data channel transmitted by the first device, adjusting a transmit power for the control channel and/or the data channel based on the reported measurement of the SINR on said control channel and/or data channel transmitted by the first device, adjusting the SINR target and the transmit rate based on the adjusted transmit power, which the SINR target and the transmit rate are to be used when transmitting on the data channel over the D2D link to the second wireless device.
An auxiliary weight supporting device, configured for supporting a user to carry an object, the auxiliary weight supporting device comprising: a back rack, configured for the user to wear and for carrying the object characterized by the auxiliary weight supporting device further comprising: a walking-stick, configured for the user to hold to be propped against the ground in accordance with the user's steps to provide a supporting force, the walking-stick comprising a gripping part, a main body and a contacting end, the gripping part and the contacting end being configured on two ends of the main body respectively, the gripping part being configured for the user to hold, and the contacting end being configured to touch the ground when the user is walking; and a connecting rod, having a first end and a second end opposite to the first end, the first end being connected to the main body of the walking-stick, and the second end being coupled to the back rack; wherein, when the user wears the auxiliary weight supporting device and walks, the walking-stick is controlled by the user to be propped against the ground and swings back and forth in accordance with the user's steps; the connecting rod drives the back rack to rise when the walking-stick swings backwards. a walking-stick, configured for the user to hold to be propped against the ground in accordance with the user's steps to provide a supporting force, the walking-stick comprising a gripping part, a main body and a contacting end, the gripping part and the contacting end being configured on two ends of the main body respectively, the gripping part being configured for the user to hold, and the contacting end being configured to touch the ground when the user is walking; and a connecting rod, having a first end and a second end opposite to the first end, the first end being connected to the main body of the walking-stick, and the second end being coupled to the back rack; wherein, when the user wears the auxiliary weight supporting device and walks, the walking-stick is controlled by the user to be propped against the ground and swings back and forth in accordance with the user's steps; the connecting rod drives the back rack to rise when the walking-stick swings backwards.
An image data processor, comprising: a surface roughness quantifier that generates a metric that quantifies a roughness of a surface of a tissue of interest in 3D image data based on a surface model adapted to the tissue of interest in the 3D image data, wherein the model includes a pre-defined triangulated surface which is adapted to the surface of the issue of interest, wherein the surface roughness quantifier is adapted to calculate a position variation of a pre-defined contrast gradient with respect to a mean surface position along a direction normal to the model surface and to determine an integral of a local position variance of the gradient, normalized to a total tissue of interest surface, thereby generating the metric; and a decision component that generates a value signal indicating a presence or an absence of disease in the tissue of interest based on the metric. a surface roughness quantifier that generates a metric that quantifies a roughness of a surface of a tissue of interest in 3D image data based on a surface model adapted to the tissue of interest in the 3D image data, wherein the model includes a pre-defined triangulated surface which is adapted to the surface of the issue of interest, wherein the surface roughness quantifier is adapted to calculate a position variation of a pre-defined contrast gradient with respect to a mean surface position along a direction normal to the model surface and to determine an integral of a local position variance of the gradient, normalized to a total tissue of interest surface, thereby generating the metric; and a decision component that generates a value signal indicating a presence or an absence of disease in the tissue of interest based on the metric.
A LED module comprising a LED chip mounted on a board, and a cover, - the cover comprising an outer dam dispensed on the board, and - a central filling, which is filled into the outer dam, wherein the outer dam is made from a cured silicone based resin, wherein the central filling is made from a cured transparent resin, and wherein the central filling comprises color conversion particles, characterised in that the outer dam is non-transparent and comprises reflecting particles, which are white pigments made from TiO 2, BaTiO 3, BaSO 4 and/or ZrO 2, and the central filling is chemically linked to the outer dam across the interface between the two materials. - the cover comprising an outer dam dispensed on the board, and - a central filling, which is filled into the outer dam,
A ligand functional substrate comprising: a) a substrate b) a primer layer disposed on the substrate comprising: a crosslinked polyamine polymer having ethylenically unsaturated polymerizable groups; c) a ligand-functional alkenyl (co)polymer layer grafted to the ethylenically unsaturated polymerizable group of the primer layer. a) a substrate b) a primer layer disposed on the substrate comprising: a crosslinked polyamine polymer having ethylenically unsaturated polymerizable groups; a crosslinked polyamine polymer having ethylenically unsaturated polymerizable groups; c) a ligand-functional alkenyl (co)polymer layer grafted to the ethylenically unsaturated polymerizable group of the primer layer.