mhurhangee/ep-ind-claims huggingface dataset:
A communication system configured to transmit data at a rate of above 500 Mbps, comprising: a transceiver coupled to a second transceiver transmitting data at a rate above 500 Mbps from the second transceiver to the first transceiver over a differential communication channel; the transceiver configured to maintain a pre-retransmission packet loss rate below 1% when there is no serious differential interference; whereby from time to time, the differential communication channel suffers from serious differential interferences that cause the packet loss rate to exceed 5%; a limited resources retransmission module, LRRM, configured to store, for a delayed transmission, a maximum amount of erred packets that are accumulated during less than 1 millisecond at data rate above 500 Mbps; and a fast-adaptive mode-conversion canceller,FA-MCC, configured to mitigate, within less than 1 millisecond from receiving an indication that the serious differential interference has occurred, the effect of the serious differential interference by increasing its adaptation step size by at least 50%, bringing the effect to a level that enables the second transceiver to successfully transmit data at a rate of above 500 Mbps; wherein the FA-MCC is further configured to reduce its adaptation step size by at least 50% within 1 second from the time the LRRM finishes retransmitting packets with errors that were lost during the time it took the FA-MCC to cancel the effect of the serious differential interference. a transceiver coupled to a second transceiver transmitting data at a rate above 500 Mbps from the second transceiver to the first transceiver over a differential communication channel; the transceiver configured to maintain a pre-retransmission packet loss rate below 1% when there is no serious differential interference; whereby from time to time, the differential communication channel suffers from serious differential interferences that cause the packet loss rate to exceed 5%; a limited resources retransmission module, LRRM, configured to store, for a delayed transmission, a maximum amount of erred packets that are accumulated during less than 1 millisecond at data rate above 500 Mbps; and a fast-adaptive mode-conversion canceller,FA-MCC, configured to mitigate, within less than 1 millisecond from receiving an indication that the serious differential interference has occurred, the effect of the serious differential interference by increasing its adaptation step size by at least 50%, bringing the effect to a level that enables the second transceiver to successfully transmit data at a rate of above 500 Mbps; wherein the FA-MCC is further configured to reduce its adaptation step size by at least 50% within 1 second from the time the LRRM finishes retransmitting packets with errors that were lost during the time it took the FA-MCC to cancel the effect of the serious differential interference.
A fiber optic plate configured by bundling a plurality of optical fibers, comprising: a plurality.of cores that propagate light; a plurality of claddings (6, 31) covering the cores; and further comprising: a glass body (8, 21) which is disposed among the plurality of optical fibers and comprises light absorbing means for absorbing stray light teaking means from the optical fibers characterized in that the glass body also comprises antimicrobial means obtained by containing silver oxide. a plurality.of cores that propagate light; a plurality of claddings (6, 31) covering the cores; and further comprising: a glass body (8, 21) which is disposed among the plurality of optical fibers and comprises light absorbing means for absorbing stray light teaking means from the optical fibers characterized in that the glass body also comprises antimicrobial means obtained by containing silver oxide. a glass body (8, 21) which is disposed among the plurality of optical fibers and comprises light absorbing means for absorbing stray light teaking means from the optical fibers characterized in that the glass body also comprises antimicrobial means obtained by containing silver oxide.
A polysiloxane, comprising at least one segment selected from a molecular structure shown by formula 1, wherein in formula 1, T is a hydroxyl, an alkyl, an alkyl containing an alcoholic hydroxyl and having less than 12 carbon atoms in the main chain, or an alkyl containing an alcoholic hydroxyl and having less than 12 non-hydrogen atoms in the main chain and containing a heteroatom, characterized in that Q is a structural segment shown by formula 2, wherein in formula 2, X is an alkyl having less than 7 carbon atoms, or an alkyl having less than 7 non-hydrogen atoms in the main chain and containing a heteroatom; R 1, R 2, and R 3 are each independently a hydrogen atom, or a substituent having less than 3 carbon atoms, or the R 2 binds to a carbon atom on the X to form a cyclic substituent.
Method for tracking and detecting positions of light spots, which are at least temporarily produced by a number N, where N > 1, of firearms that are adapted for simulation purposes, on a projection surface of a weapon simulator, the content of the projection surface, including the light spots, being optically recorded by at least one camera at specific time points, characterized in that at all the odd time points before the content of the projection surface is recorded, the light spots of all the firearms of the weapon simulator are activated and recorded and the positions thereof are detected and corresponding position data is obtained, and in that at successive even time points before the content of the projection surface is recorded, a light spot in each case of another firearm i, where i = 1... N, is activated and recorded and allocated to the firearm i and corresponding allocation information is obtained, until after a number of even time points that corresponds to the number N of firearms operated in the weapon simulator, the position of the light spots of all the firearms operated in the weapon simulator has been detected and the light spots of all the firearms are each allocated to one of the firearms that has produced the light spot.
A method for the purification of a divalent cation binding protein comprising the steps of: (a) loading a first anion exchange resin material with the divalent cation binding protein in a loading buffer in the absence of divalent cations or at a low concentration thereof, wherein the low concentration refers to a concentration of 1000 μM at most; and optionally washing the loaded anion exchange resin material with a washing buffer in the absence of divalent cations; (b) eluting the divalent cation binding protein with an eluant comprising a counter-anion to form an eluate containing the divalent cation binding protein; (c) supplementing the eluate obtained in step (b) with at least one divalent cation and increasing the pH; (d) loading a second anion exchange resin material with the supplemented eluate obtained in step (c); and (e) collecting the flow-through containing the divalent cation binding protein. (a) loading a first anion exchange resin material with the divalent cation binding protein in a loading buffer in the absence of divalent cations or at a low concentration thereof, wherein the low concentration refers to a concentration of 1000 μM at most; and optionally washing the loaded anion exchange resin material with a washing buffer in the absence of divalent cations; (b) eluting the divalent cation binding protein with an eluant comprising a counter-anion to form an eluate containing the divalent cation binding protein; (c) supplementing the eluate obtained in step (b) with at least one divalent cation and increasing the pH; (d) loading a second anion exchange resin material with the supplemented eluate obtained in step (c); and (e) collecting the flow-through containing the divalent cation binding protein.
A container having a curved bottom and a connecting assembly comprising: a bottom wall region having a cutout contour in a peripheral zone of the bottom, a flat flange body having an inner side, an outer side and a connecting opening connecting the inner side and outer side (6, 7), the peripheral zone of the bottom comprising the following regions: a collar region; a brim region; and a calotte region; and the inner side being connected to a section of the cutout contour running in a connecting plane, so that the flange body is arranged with its connecting opening within an outer contour of the bottom and of the container, the connecting opening comprising an inner surface, characterized in that a nozzle collar connects a region of the outer side that runs in the interior of the bottom wall region to the cutout contour and aligns the inner surface along a common apex line with an inner surface of the collar region. a bottom wall region having a cutout contour in a peripheral zone of the bottom, a flat flange body having an inner side, an outer side and a connecting opening connecting the inner side and outer side (6, 7), the peripheral zone of the bottom comprising the following regions: a collar region; a brim region; and a calotte region; and the inner side being connected to a section of the cutout contour running in a connecting plane, so that the flange body is arranged with its connecting opening within an outer contour of the bottom and of the container, the connecting opening comprising an inner surface, characterized in that a nozzle collar connects a region of the outer side that runs in the interior of the bottom wall region to the cutout contour and aligns the inner surface along a common apex line with an inner surface of the collar region.
An aqueous bonding composition comprising: a saccharide; a water-soluble synthetic resin; and an inorganic acid ammonium salt, wherein the inorganic acid ammonium salt comprises at least one selected from ammonium dihydrogen phosphate and ammonium chloride; and the water-soluble synthetic resin comprises a polyvinyl alcohol-based compound. a saccharide; a water-soluble synthetic resin; and an inorganic acid ammonium salt, wherein the inorganic acid ammonium salt comprises at least one selected from ammonium dihydrogen phosphate and ammonium chloride; and the water-soluble synthetic resin comprises a polyvinyl alcohol-based compound.
A blood vessel optical fiber guide wire comprising a shape memory alloy hypotube, the hypotube is disposed in the periphery of the optical fiber guide wire, wherein the hypotube comprises several spiral coils; and the hypotube is made from a shape memory alloy such that its diameter varies over temperature so as to closely wrap outside of an axial fiber, wherein the blood vessel optical fiber guide wire comprises an optical fiber core wire disposed in a core and the hypotube disposed outside of the optical fiber core wire, wherein the coils of the hypotube are made from a shape memory alloy material possessing a martensite phase change temperature of Ms and a reverse phase change temperature of As; wherein the hypotube is configured such that when cooling the hypotube to a temperature of T0 lower than Ms and applying opposite torques at both ends of the hypotube so as to reduce the number of spiral coils of the hypotube and increase the diameter to D, shape of the hypotube at the temperature lower than Ms is maintained at the temperature of T0 due to the metals memory effects; wherein the hypotube is configured such that increasing the temperature of the hypotube to room temperature T1 higher than As, and applying opposite torques at both ends of the hypotube so as to reduce the inner diameter of the hypotube to d, a shape of the hypotube at the temperature of T1 is maintained due to metals memory effects; wherein the optical fiber core wire of the hypotube is selected of a diameter of Di, wherein D > Di≥d, and is configured such that when cooling the hypotube with the obtained shape memory function to a temperature of T0, the inner diameter of the hypotube increases to D, so that the optical fiber core wire can be inserted into the hypotube, wherein the hypotube is configured such that when increasing the temperature of the hypotube into which the optical fiber core wire has been inserted to room temperature, the inner diameter of the hypotube decreases, since the inner diameter d of the hypotube at the temperature of T1 is not larger than the outer diameter Di of the optical fiber core wire, so that the hypotube is wrapped closely outside of the optical fiber core wire.
A transmitter configured to transmit symbols including respective guard intervals to a plurality of reception devices (MS1, MS2, MS3) by orthogonal frequency division multiplexing, said transmitter comprising a transmission unit configured to utilize sub-carriers for transmission of a first symbol to be received by the plurality of reception devices (MS1, MS2, MS3) in an area formed by the transmitter, as well as for transmission of a second symbol to be received by a specific reception device (MS1, MS2, MS3) by sharing the sub-carriers in a time divisional manner, wherein the transmitter is configured to receive information corresponding to a maximum transmission delay difference of a path from the transmitter to the specific reception device, the maximum transmission delay difference of the path being detected by the specific reception device, and wherein the transmitter is configured to set: a length of a first guard interval of the first symbol to be larger than the maximum transmission delay difference of the plurality of transmission delay differences corresponding to the plurality of reception devices (MS1, MS2, MS3), and a length of a second guard interval of the second symbol to be larger than the maximum transmission delay difference of the path from the transmitter to the specific reception device, as provided by the received information received by the transmitter. a length of a first guard interval of the first symbol to be larger than the maximum transmission delay difference of the plurality of transmission delay differences corresponding to the plurality of reception devices (MS1, MS2, MS3), and a length of a second guard interval of the second symbol to be larger than the maximum transmission delay difference of the path from the transmitter to the specific reception device, as provided by the received information received by the transmitter.
An electronic device, comprising: a display; a processor configured to detect a first gesture in a predefined area of the display while a first window is currently displayed in full screen on the display and upon detection of the first gesture instruct the display to display a gallery of previously opened windows; wherein the processor is further configured to subsequently upon detecting a second gesture in the predefined area on the display, wherein the predefined area is located within the lower 25% of the display and a button is displayed inside the predefined area, the second gesture being a movement along the predefined area starting at the button, instruct the display to scroll based on the movement through the gallery, wherein the display is configured to scroll through the gallery by subsequently moving one of the windows in the gallery in the foreground while putting the remaining windows of the gallery in the background, wherein upon detecting an end of the movement, the processor is configured to instruct the display to display in full screen a second window which was in the foreground when the movement ended. a display; a processor configured to detect a first gesture in a predefined area of the display while a first window is currently displayed in full screen on the display and upon detection of the first gesture instruct the display to display a gallery of previously opened windows; wherein the processor is further configured to subsequently upon detecting a second gesture in the predefined area on the display, wherein the predefined area is located within the lower 25% of the display and a button is displayed inside the predefined area, the second gesture being a movement along the predefined area starting at the button, instruct the display to scroll based on the movement through the gallery, wherein the display is configured to scroll through the gallery by subsequently moving one of the windows in the gallery in the foreground while putting the remaining windows of the gallery in the background, wherein upon detecting an end of the movement, the processor is configured to instruct the display to display in full screen a second window which was in the foreground when the movement ended.
Electronic counting housing intended to be attached underneath a cover of a manhole, the cover comprising at least one first attachment means and a through-cavity, the electronic housing comprising: - a shell having an upper surface, - for the or each first attachment means, a second attachment means (212, 502) intended to engage with said first attachment means in order to attach said shell underneath the cover, - electronic components comprising a memory containing counting data, a wireless communication module intended to transmit the stored data, and - a control module intended to shift said wireless communication module from an inactive mode to an active mode, the electronic counting housing being characterised in that said control module comprises a sensor capable of reacting in the presence of an external wake-up device and causing the wireless communication module to shift from inactive mode to active mode, and in that said sensor projects from said upper surface and is intended to be housed inside said cavity. - a shell having an upper surface, - for the or each first attachment means, a second attachment means (212, 502) intended to engage with said first attachment means in order to attach said shell underneath the cover, - electronic components comprising a memory containing counting data, a wireless communication module intended to transmit the stored data, and - a control module intended to shift said wireless communication module from an inactive mode to an active mode,
Injection syringe, in particular an intramammary injection syringe, comprising a first and a second reservoir (2,3), which first reservoir has a first open end through which the second reservoir can be mounted sliding in the first reservoir, which first reservoir has a second end located opposite the first end and on which an injection needle can be arranged, which second reservoir comprises a base surface which is fitted with an outlet, characterised in that at the outlet is arranged a protrusion which in mounted state of the injection syringe extends from the base surface in the direction of the second end, which protrusion is arranged breakably on the base surface of the second reservoir and which protrusion is arranged offset in relation to a central axis of the injection syringe, such that when the protrusion reaches the second end it breaks away to open the outlet of the second reservoir.
A method for stabilizing precursor fibers for the carbon fiber production, comprising the following steps: heating the precursor fibers to a first temperature and maintaining the precursor fibers at the first temperature for a predetermined period of time; and subsequently heating the precursor fibers to at least a second temperature higher than the first temperature and maintaining the precursor fibers at the second temperature for a predetermined period of time; wherein the precursor fibers are in a gas atmosphere with a negative pressure in a range between 1.2 × 10 3 PA and 30 × 10 3 PA (12 mBar and 300 mBar) during the respective heating and between the heating steps. heating the precursor fibers to a first temperature and maintaining the precursor fibers at the first temperature for a predetermined period of time; and subsequently heating the precursor fibers to at least a second temperature higher than the first temperature and maintaining the precursor fibers at the second temperature for a predetermined period of time; wherein the precursor fibers are in a gas atmosphere with a negative pressure in a range between 1.2 × 10 3 PA and 30 × 10 3 PA (12 mBar and 300 mBar) during the respective heating and between the heating steps.
A surgical staple (1, 101, 901) for compressing bones or bone fragments, including a first leg for anchoring in a first bone or bone fragment; a second leg for anchoring in a second bone or bone fragment; a bridge (2, 902) connecting the first leg and the second leg, the bridge having a first end section and a second end section opposite the first end section, wherein the first leg is connected to the first end section and the second leg is connected to the second end section; wherein the bridge comprises two engagement portions (51, 52, 951, 952) for engagement by an external instrument provided to bend the bridge in order to transfer the surgical staple from a relaxed state to an expanded state, wherein each of the engagement portions is formed at the first and second end sections (29, 29'), respectively, as an extension (5, 5') integrally formed with the bridge and extending beyond a position where the first or second leg (3, 4, 103, 104) is connected to the respective first or second end section (29, 29') of the bridge, wherein, in a relaxed state of the surgical staple, the bridge is arc-shaped in at least a portion thereof in a plane defined by the bridge and the first and second legs, and has a straight shape in an expanded state of the surgical staple, when engaged by the instrument and bent, wherein in the expanded state of the surgical staple, a bottom side surface (24, 224, 324, 424, 2324) of the bridge defines a plane, and the engagement portions are entirely located above said plane and away from the legs (3, 4).