mhurhangee/ep-ind-claims huggingface dataset:
A surgical system (10, 210) comprising: a frame (50, 250), wherein the frame (50, 250) comprises a first side (52, 252), a second side (54, 254), a third side (56, 256), and a fourth side (58, 258) that form a continuous perimeter around a frame opening, wherein the frame (50, 250) includes upper and lower surfaces (51, 53) having a plurality of protrusions for engaging adjacent vertebrae; a spacer (80, 280) received in the frame opening, the spacer (80, 280) having an upper surface and a lower surface, wherein the spacer (80, 280) comprises a first arm and a second arm extend around a spacer opening (87, 287), the spacer opening (87, 287) extending from the upper surface to the lower surface of the spacer (80, 280), wherein an outer wall of the spacer (80, 280) includes grooves for receiving nubs positioned on an inner wall of the frame (50, 250) for securing the spacer (80, 280) to the frame (50, 250); and one or more fixation members (32, 34, 36) insertable in the frame (50, 250), wherein the one or more fixation members (32, 34, 36) includes at least a first fixation member that is angled in an upward direction and a second fixation member that is angled in a downward direction. a frame (50, 250), wherein the frame (50, 250) comprises a first side (52, 252), a second side (54, 254), a third side (56, 256), and a fourth side (58, 258) that form a continuous perimeter around a frame opening, wherein the frame (50, 250) includes upper and lower surfaces (51, 53) having a plurality of protrusions for engaging adjacent vertebrae; a spacer (80, 280) received in the frame opening, the spacer (80, 280) having an upper surface and a lower surface, wherein the spacer (80, 280) comprises a first arm and a second arm extend around a spacer opening (87, 287), the spacer opening (87, 287) extending from the upper surface to the lower surface of the spacer (80, 280), wherein an outer wall of the spacer (80, 280) includes grooves for receiving nubs positioned on an inner wall of the frame (50, 250) for securing the spacer (80, 280) to the frame (50, 250); and one or more fixation members (32, 34, 36) insertable in the frame (50, 250), wherein the one or more fixation members (32, 34, 36) includes at least a first fixation member that is angled in an upward direction and a second fixation member that is angled in a downward direction.
A polyethylene composition comprising a base resin having a density of more than 950 kg/m 3 and equal to or less than 965 kg/m 3, determined according to ISO 1183-1:2004, and wherein the composition has a melt flow rate MFR 5 (190°C, 5 kg) of equal to or less than 0.1 g/10 min, determined according to ISO 1133 and a polydispersity index PI within the range of equal to or higher than 3.0 Pa -1 and equal to or less than 4.5 Pa -1.
A method of connecting a first computing device with a second computing device on a wireless network, the method comprising: - detecting at the first computing device the presence of the second computing device on the wireless network; creating a wireless bridge between the first computing device and the second computing device; receiving by the first computing device a list of available critical resources from the second computing device, wherein the critical resources include one or more of the central processing unit, volatile memory and non-volatile memory of the second computing device; permitting access by the first computing device to critical resources (410, 416) of the second computing device; creating by the first computing device a single logical computing entity from the resources of the first computing device and the critical resources of the second computing device; receiving by the first computing device an interrupt request from the second computing device; and terminating the wireless bridge between the first computing device and the second computing device. - detecting at the first computing device the presence of the second computing device on the wireless network; creating a wireless bridge between the first computing device and the second computing device; receiving by the first computing device a list of available critical resources from the second computing device, wherein the critical resources include one or more of the central processing unit, volatile memory and non-volatile memory of the second computing device; permitting access by the first computing device to critical resources (410, 416) of the second computing device; creating by the first computing device a single logical computing entity from the resources of the first computing device and the critical resources of the second computing device; receiving by the first computing device an interrupt request from the second computing device; and terminating the wireless bridge between the first computing device and the second computing device.
An image forming apparatus, comprising: an image forming means (120; 130; 140; 150) for forming a pattern image on a recording medium; and obtaining means for obtaining luminance information from a pattern image formed on a recording medium; converting means for converting the luminance information into density information using conversion setting information corresponding to the recording medium; calibration means (301, S801 to S803) for performing calibration based on the density information to determine an image formation condition for forming an image by the image forming means; creating means (301, S1001, S1005) for controlling the image forming means to form a first pattern image on a specific recording medium, and controlling the image forming means to form a second pattern image on an arbitrary recording medium, and creating second conversion setting information (LUTid) for converting luminance information into density information with regard to the arbitrary recording medium by using: first luminance information (I) obtained from the first pattern image by the obtaining means, and second luminance information (I) obtained from the second pattern image by the obtaining means, and first conversion setting information (LUTid) corresponding to the specific recording medium for converting luminance information into density information with regard to the specific recording medium. an image forming means (120; 130; 140; 150) for forming a pattern image on a recording medium; and obtaining means for obtaining luminance information from a pattern image formed on a recording medium; converting means for converting the luminance information into density information using conversion setting information corresponding to the recording medium; calibration means (301, S801 to S803) for performing calibration based on the density information to determine an image formation condition for forming an image by the image forming means; creating means (301, S1001, S1005) for controlling the image forming means to form a first pattern image on a specific recording medium, and controlling the image forming means to form a second pattern image on an arbitrary recording medium, and creating second conversion setting information (LUTid) for converting luminance information into density information with regard to the arbitrary recording medium by using: first luminance information (I) obtained from the first pattern image by the obtaining means, and second luminance information (I) obtained from the second pattern image by the obtaining means, and first conversion setting information (LUTid) corresponding to the specific recording medium for converting luminance information into density information with regard to the specific recording medium. first luminance information (I) obtained from the first pattern image by the obtaining means, and second luminance information (I) obtained from the second pattern image by the obtaining means, and first conversion setting information (LUTid) corresponding to the specific recording medium for converting luminance information into density information with regard to the specific recording medium.
An air conditioning apparatus comprising: a relay unit connected to one or a plurality of outdoor units and a plurality of indoor units by different pipeline systems, respectively, so as to exchange heat between a refrigerant circulating through the outdoor unit and a heat medium different from the refrigerant and to circulate the heat medium through the indoor units, one or a plurality of outdoor units connected to the relay unit by a pipeline and in which a refrigerant is circulated; and a plurality of indoor units connected to the relay unit by a different system and in which the heat medium is circulated, the relay unit comprising: a plurality of valve blocks, each integrating at least a plurality of branch pipes (301, 302) connected to the indoor units, a plurality of main pipes (305, 306, 307, 308) which become channels for the heat medium relating to the heat exchange, and a heat medium flow direction switching device (22, 23) that switches the main pipes (305, 306, 307, 308) to communicate with the branch pipes (301, 302), characterized in that a valve block unit connects the plurality of valve blocks and a slit is formed in the valve block between a main pipe on the cooling side and a main pipe on the heating side. a relay unit connected to one or a plurality of outdoor units and a plurality of indoor units by different pipeline systems, respectively, so as to exchange heat between a refrigerant circulating through the outdoor unit and a heat medium different from the refrigerant and to circulate the heat medium through the indoor units, one or a plurality of outdoor units connected to the relay unit by a pipeline and in which a refrigerant is circulated; and a plurality of indoor units connected to the relay unit by a different system and in which the heat medium is circulated, the relay unit comprising: a plurality of valve blocks, each integrating at least a plurality of branch pipes (301, 302) connected to the indoor units, a plurality of main pipes (305, 306, 307, 308) which become channels for the heat medium relating to the heat exchange, and a heat medium flow direction switching device (22, 23) that switches the main pipes (305, 306, 307, 308) to communicate with the branch pipes (301, 302), characterized in that a valve block unit connects the plurality of valve blocks and a slit is formed in the valve block between a main pipe on the cooling side and a main pipe on the heating side. a plurality of valve blocks, each integrating at least a plurality of branch pipes (301, 302) connected to the indoor units, a plurality of main pipes (305, 306, 307, 308) which become channels for the heat medium relating to the heat exchange, and a heat medium flow direction switching device (22, 23) that switches the main pipes (305, 306, 307, 308) to communicate with the branch pipes (301, 302), characterized in that a valve block unit connects the plurality of valve blocks and a slit is formed in the valve block between a main pipe on the cooling side and a main pipe on the heating side.
Electric drive system having a battery (20, 30) having a plurality of battery cell lines (21, 31), each of which contains a plurality of battery cells which are connected in series between a respective first pole and a respective second pole, and a pulse-controlled inverter which has a plurality of switching paths, each having two semiconductor valves and two diodes each, wherein each of the switching paths of the pulse-controlled inverter is supplied by precisely one of the battery cell lines (21,31).
An apparatus for receiving a data signal, comprising: a first sampler (110, 210, 310, 410) to sample the data signal at a data transition time based on an edge clock; a second sampler (112, 212, 312, 412) to sample the data signal according to a data clock, the second sampler (112, 212, 312, 412) including an analog to digital converter that produces multi-bit outputs; a data recovery circuit that processes the multi-bit outputs to generate corresponding binary output values; and a clock recovery circuit to adjust the phase of the edge clock based on samples produced by the first sampler (110, 210, 310, 410) and the binary output values, wherein the data recovery circuit comprises an equalizer (220, 362, 462) utilizing signals of the analog to digital converter. a first sampler (110, 210, 310, 410) to sample the data signal at a data transition time based on an edge clock; a second sampler (112, 212, 312, 412) to sample the data signal according to a data clock, the second sampler (112, 212, 312, 412) including an analog to digital converter that produces multi-bit outputs; a data recovery circuit that processes the multi-bit outputs to generate corresponding binary output values; and a clock recovery circuit to adjust the phase of the edge clock based on samples produced by the first sampler (110, 210, 310, 410) and the binary output values, wherein the data recovery circuit comprises an equalizer (220, 362, 462) utilizing signals of the analog to digital converter.
A method for handling reporting of performance degradation from wireless devices (300a, 300b, 300c) in a communications system, the method being performed by a network node in the communications system, the method comprising: determining a configuration for real time reporting of events from wireless devices (300a, 300b, 300c) in idle mode, the events pertaining to performance degradation experienced by the wireless devices (300a, 300b, 300c) when in idle mode, wherein the configuration comprises restrictions in terms of real time reporting of the events to the network node; and providing information of the configuration to the wireless devices (300a, 300b, 300c), receiving, in conformity with the configuration, reporting of events from the wireless devices (300a, 300b, 300c). characterized in that: the configuration specifies at least two levels of detail for the reporting, and wherein the wireless devices (300a, 300b, 300c) are restricted in terms of which level of detail to use for the reporting, wherein which level of detail the wireless devices (300a, 300b, 300c) are restricted to depend on a network load of the network node. determining a configuration for real time reporting of events from wireless devices (300a, 300b, 300c) in idle mode, the events pertaining to performance degradation experienced by the wireless devices (300a, 300b, 300c) when in idle mode, wherein the configuration comprises restrictions in terms of real time reporting of the events to the network node; and providing information of the configuration to the wireless devices (300a, 300b, 300c), receiving, in conformity with the configuration, reporting of events from the wireless devices (300a, 300b, 300c).
A method of preparing a plasticizer, the method comprising steps of: adding both isophthalic acid and terephthalic acid to alcohol to obtain a mixture; adding a catalyst to the mixture to react in a nitrogen atmosphere; removing unreacted alcohol and neutralizing unreacted acid; dehydrating and filtering by vacuum distillation to obtain the plasticizer, and wherein, in the first step, the isophthalic acid and the terephthalic acid are added in a weight ratio of 50:50 to 99:1 wherein the plasticizer is an ether-free plasticizer and consists of isophthalate and terephthalate, the ether-free denotes that an amount of an ether component included in the plasticizer is in a range of 1,000 ppm or less, wherein, in the plasticizer, a weight ratio of the isophthalate to the terephthalate is in a range of 50:50 to 99:1, wherein the alcohol is 2-ethylhexanol, wherein the catalyst is tetra alkyl titanate, wherein the amount of the catalyst used is in a range of 0.01 wt% to 5 wt% based on total 100 wt% of a reactant, and wherein the isophthalate has a structure represented by Chemical Formula 1, and the terephthalate has a structure represented by Chemical Formula 2: adding both isophthalic acid and terephthalic acid to alcohol to obtain a mixture; adding a catalyst to the mixture to react in a nitrogen atmosphere; removing unreacted alcohol and neutralizing unreacted acid; dehydrating and filtering by vacuum distillation to obtain the plasticizer, and wherein, in the first step, the isophthalic acid and the terephthalic acid are added in a weight ratio of 50:50 to 99:1 wherein the plasticizer is an ether-free plasticizer and consists of isophthalate and terephthalate, the ether-free denotes that an amount of an ether component included in the plasticizer is in a range of 1,000 ppm or less, wherein, in the plasticizer, a weight ratio of the isophthalate to the terephthalate is in a range of 50:50 to 99:1, wherein the alcohol is 2-ethylhexanol, wherein the catalyst is tetra alkyl titanate, wherein the amount of the catalyst used is in a range of 0.01 wt% to 5 wt% based on total 100 wt% of a reactant, and wherein the isophthalate has a structure represented by Chemical Formula 1, and the terephthalate has a structure represented by Chemical Formula 2:
A method of detecting an intent of spatial control of a vehicle comprising: receiving, from a spatial controller, spatial motion data generated from movement of the spatial controller with respect to a global reference frame, wherein the spatial motion data of the spatial controller is representative of a desired motion of at least a portion of a vehicle; computing, from the spatial motion data, an initial desired velocity vector representing a desired linear velocity or a desired angular velocity of at least the portion of the vehicle; transforming the initial desired velocity vector from the global reference frame into a control reference frame; identifying, from a set of principal axis directions that are parallel to principal axes of the control reference frame, a nearest principal axis direction based on comparing a direction of the initial desired velocity vector with the set of principal axis directions; computing a misalignment angle that represents a deviation in direction of the initial desired velocity vector from the nearest principal axis direction; upon determining that the misalignment angle is less than or equal to an axis-snapping tolerance value, defining a final desired velocity vector by rotating the initial desired velocity vector such that the final desired velocity vector is parallel to the nearest principal axis direction; and sending information indicating the final desired velocity vector to at least the portion of the vehicle. receiving, from a spatial controller, spatial motion data generated from movement of the spatial controller with respect to a global reference frame, wherein the spatial motion data of the spatial controller is representative of a desired motion of at least a portion of a vehicle; computing, from the spatial motion data, an initial desired velocity vector representing a desired linear velocity or a desired angular velocity of at least the portion of the vehicle; transforming the initial desired velocity vector from the global reference frame into a control reference frame; identifying, from a set of principal axis directions that are parallel to principal axes of the control reference frame, a nearest principal axis direction based on comparing a direction of the initial desired velocity vector with the set of principal axis directions; computing a misalignment angle that represents a deviation in direction of the initial desired velocity vector from the nearest principal axis direction; upon determining that the misalignment angle is less than or equal to an axis-snapping tolerance value, defining a final desired velocity vector by rotating the initial desired velocity vector such that the final desired velocity vector is parallel to the nearest principal axis direction; and sending information indicating the final desired velocity vector to at least the portion of the vehicle.
Transverse link base for attaching a separated transverse link for a wheel to a vehicle, which transverse link comprises at least two part transverse links (11a, 11b) which can be connected on one side to a vehicle-side joint (32a, 32b) and on the other side to a wheel-side joint (13, 13a, 13b, 13c), the transverse link base comprising at least two vehicle attaching joints (31a, 31b) for attaching the transverse link base in an articulated manner to the vehicle, and at least two part transverse link attaching joints (32a, 32b) for the vehicle-side articulated attachment of in each case one of the part transverse links (11a, 11b) to the transverse link base, characterized in that the part transverse link attaching joints (32a, 32b) are ball joints.
A method for controlling a variable capacity ejector unit arranged in a refrigeration system, said refrigeration system further comprising a compressor, a heat rejecting heat exchanger, an expansion device and an evaporator arranged in the refrigerant path, wherein the ejector unit is fluidly connected in the refrigerant path between the heat rejecting heat exchanger and the expansion device, the refrigeration system further comprising a high pressure valve arranged in the refrigerant path, fluidly in parallel with the ejector unit, between the heat rejecting heat exchanger and the expansion device, the method comprising the steps of: - obtaining a temperature and a pressure of refrigerant leaving the heat rejecting heat exchanger, the method being characterised by the ejector unit comprising two or more ejectors arranged fluidly in parallel in a refrigerant path and comprising the following steps: - generating a high pressure valve control signal for the high pressure valve on the basis of the obtained temperature and the obtained pressure, - controlling an opening degree of the high pressure valve in accordance with the high pressure control signal, - generating an ejector control signal for the ejector unit, based on the obtained temperature and the obtained pressure, and based on the high pressure control signal, said ejector control signal indicating whether the capacity of the ejector unit should be increased, decreased or maintained, and - controlling the capacity of the ejector unit in accordance with the generated ejector control signal by activating or deactivating one or more of the ejectors. - obtaining a temperature and a pressure of refrigerant leaving the heat rejecting heat exchanger, the method being characterised by the ejector unit comprising two or more ejectors arranged fluidly in parallel in a refrigerant path and comprising the following steps: - generating a high pressure valve control signal for the high pressure valve on the basis of the obtained temperature and the obtained pressure, - controlling an opening degree of the high pressure valve in accordance with the high pressure control signal, - generating an ejector control signal for the ejector unit, based on the obtained temperature and the obtained pressure, and based on the high pressure control signal, said ejector control signal indicating whether the capacity of the ejector unit should be increased, decreased or maintained, and - controlling the capacity of the ejector unit in accordance with the generated ejector control signal by activating or deactivating one or more of the ejectors.