mhurhangee/ep-ind-claims huggingface dataset:
Bone cement kit, comprising a paste A and a paste B, whereby (a) paste A contains at least one monomer for radical polymerisation having a boiling point of less than 120°C at a pressure of 1,013 mbar, as polymerisation initiator, at least one peroxide, and as polymerisation co-accelerator, at least one tertiary amine, at least one amidine or a mixture of at least one tertiary amine and at least one amidine, and (b) paste B contains at least one monomer for radical polymerisation having a boiling point of less than 120°C at a pressure of 1.013 mbar, as polymerisation accelerator, at least one heavy metal compound, and as polymerisation co-accelerator at least one sulfimide, at least one dicarboxylic acid imide or a mixture of at least one sulfimide and at least one dicarboxylic acid imide, whereby at least one of the pastes A and B contains, as component and/or, at least one filling agent that is insoluble in and/or. (a) paste A contains at least one monomer for radical polymerisation having a boiling point of less than 120°C at a pressure of 1,013 mbar, as polymerisation initiator, at least one peroxide, and as polymerisation co-accelerator, at least one tertiary amine, at least one amidine or a mixture of at least one tertiary amine and at least one amidine, and at least one monomer for radical polymerisation having a boiling point of less than 120°C at a pressure of 1,013 mbar, as polymerisation initiator, at least one peroxide, and as polymerisation co-accelerator, at least one tertiary amine, at least one amidine or a mixture of at least one tertiary amine and at least one amidine, and (b) paste B contains at least one monomer for radical polymerisation having a boiling point of less than 120°C at a pressure of 1.013 mbar, as polymerisation accelerator, at least one heavy metal compound, and as polymerisation co-accelerator at least one sulfimide, at least one dicarboxylic acid imide or a mixture of at least one sulfimide and at least one dicarboxylic acid imide, whereby at least one of the pastes A and B contains, as component and/or, at least one filling agent that is insoluble in and/or. at least one monomer for radical polymerisation having a boiling point of less than 120°C at a pressure of 1.013 mbar, as polymerisation accelerator, at least one heavy metal compound, and as polymerisation co-accelerator at least one sulfimide, at least one dicarboxylic acid imide or a mixture of at least one sulfimide and at least one dicarboxylic acid imide,
A nickel chrome iron alloy comprising (in % by mass) 12 to 28 % chrome, 1.8 to 3.0 % aluminum, 1.0 to 15 % iron, 0.01 to 0.5 % silicon, 0.005 to 0.5 % manganese, 0.01 to 0.20 % yttrium, 0.02 to 0.60 % titanium, 0.01 to 0.2 % zirconium, 0.0002 to 0.05 % magnesium, 0.0001 to 0.05 % calcium, 0.03 to 0.11 % carbon, 0.003 to 0.05 % nitrogen, 0.0005 to 0.008 % boron, 0.0001 to 0.010 % oxygen, 0.001 to 0.030 % phosphorous, max. 0.010 % sulphur, max. 0.5 % molybdenum, max. 0.5 % tungsten, wherein yttrium can be completely or partially replaced, if required, by 0.001 to 0.2 % lanthanum and/or by 0.001 to 0.2 % cerium, and wherein titanium can be completely or partially replaced, if required, by 0.001 to 0.6 % niobium, the rest being nickel and the usual process-related impurities, wherein the following conditions have to be fulfilled: 0 < 7.7 C − x • a < 1.0 with a = PN, if PN > 0 or a = 0, if PN ≤ 0 and x = 1.0 Ti + 1.06 Zr / 0.251 Ti + 0.132 Zr wherein PN = 0.251 Ti + 0.132 Zr − 0.857 N and Ti, Zr, N, C being the concentrations of the concerning elements in % by mass, and wherein zirconium can be completely or partially substituted, if required, by 0.001 to 0.2 % hafnium and the formulas 3c and 4 will be replaced by the following formulas: x = 1.0 Ti + 1.06 Zr + 0.605 Hf / 0.251 * Ti + 0.132 Zr + 0.0672 Hf wherein PN = 0.251 Ti + 0.132 Zr − + 0.0672 Hf − 0.857 N and Ti, Zr, Hf, N, C being the concentrations of the concerning elements in % by mass.
A ventilator having a respiratory gas unit having a humidifier which comprises a heating element and a water container and is designed for coupling to the ventilator, comprising: - at least one sensor that records parameters of the respiratory gas; - at least one control unit for setting the heating power of the heating element at least partially based on the parameter of the respiratory gas, wherein the control unit comprises at least one ramp module, characterized in that the ramp module provides a function of the temperature rise in the humidifier, such that the desired humidification or the desired heating power is achieved more quickly, and which controls a higher heating power in a first, shorter phase than in a second, longer phase, wherein multiple discrete levels of heating power can be set and in each case at least one characteristic curve is stored per level of the heating power so as to be retrievable, wherein various heating levels are set by the ramp module by means of closed-loop power regulation, wherein the current and voltage at the heating element are detected by means of a cyclical measurement. - at least one sensor that records parameters of the respiratory gas; - at least one control unit for setting the heating power of the heating element at least partially based on the parameter of the respiratory gas, wherein the control unit comprises at least one ramp module, characterized in that the ramp module provides a function of the temperature rise in the humidifier, such that the desired humidification or the desired heating power is achieved more quickly, and which controls a higher heating power in a first, shorter phase than in a second, longer phase, wherein multiple discrete levels of heating power can be set and in each case at least one characteristic curve is stored per level of the heating power so as to be retrievable, wherein various heating levels are set by the ramp module by means of closed-loop power regulation, wherein the current and voltage at the heating element are detected by means of a cyclical measurement.
An automated analysis device that analyzes specimens, the automated analysis device comprising: a plurality of analysis units (2, 3) that analyze the specimens and of which at least some have different time lengths of analysis cycles; a specimen container buffer portion that holds a plurality of specimen containers holding the specimens; a conveyance device that delivers the specimen containers held in the specimen container buffer portion to the analysis units (2, 3); and a control portion that outputs synchronization signals to all of the plurality of analysis units (2, 3) at different timings when the specimen containers are delivered to the plurality of analysis units (2, 3), wherein the analysis units (2, 3) deliver the specimen containers from the buffer portion to the analysis units (2, 3) starting from the synchronization signals, wherein the conveyance device is operated in the same cycle as an analysis unit having a shortest analysis cycle among the plurality of analysis units (2, 3) that are separately connected to the conveyance device, wherein the control portion first outputs the synchronization signals to the analysis unit (2, 3) having the shortest analysis cycle, and sequentially outputs the synchronization signals to another analysis unit (2, 3) other than the analysis unit (2, 3) having the shortest analysis cycle immediately after a period required for a delivery process of the specimen containers in one operation cycle of the conveyance device a plurality of analysis units (2, 3) that analyze the specimens and of which at least some have different time lengths of analysis cycles; a specimen container buffer portion that holds a plurality of specimen containers holding the specimens; a conveyance device that delivers the specimen containers held in the specimen container buffer portion to the analysis units (2, 3); and a control portion that outputs synchronization signals to all of the plurality of analysis units (2, 3) at different timings when the specimen containers are delivered to the plurality of analysis units (2, 3), wherein the analysis units (2, 3) deliver the specimen containers from the buffer portion to the analysis units (2, 3) starting from the synchronization signals, wherein the conveyance device is operated in the same cycle as an analysis unit having a shortest analysis cycle among the plurality of analysis units (2, 3) that are separately connected to the conveyance device, wherein the control portion first outputs the synchronization signals to the analysis unit (2, 3) having the shortest analysis cycle, and sequentially outputs the synchronization signals to another analysis unit (2, 3) other than the analysis unit (2, 3) having the shortest analysis cycle immediately after a period required for a delivery process of the specimen containers in one operation cycle of the conveyance device
A reflection board of a base station antenna, comprising a bottom board, a side board, and two step boards, wherein the side board comprises a first side board and a second side board that are opposite to each other, the first side board and the second side board are respectively disposed on the two long edges of the bottom board, the side board is connected to the two step boards, and the step boards are in contact with the bottom board; wherein the first side board is connected to a first step board of the two step boards, and has a flap, the flap forms a step relative to the first step board and the bottom board; wherein a first flat board parallel to the first side board is installed on an end of the first step board that is connected to the first side board; wherein the second side board is connected to a second step board, and has a flap, the flap forms a step relative to the second step board and the bottom board; wherein a second flat board parallel to the second side board is installed on an end of the second step board that is connected to the second side board; wherein a third side board and a fourth side board are respectively disposed on another two sides of the bottom board; and the first side board, the third side board, the fourth side board, the first step board and the bottom board form an enclosed structure; and the second side board, the third side board, the fourth side board, the second step board and the bottom board form an enclosed structure.
A method of controlling a cluster of radio access nodes for radio communication with a user equipment, the method comprising or triggering the steps of: receiving information from at least one of the user equipment and the radio access nodes, wherein the information is indicative of a radio quality of the radio communication; and changing, based on the received information, a number of radio access nodes (304, 306) that redundantly communicate with the user equipment, wherein the changing step includes switching, based on the received information, between a robustness-oriented mode of operating the cluster and a throughput-oriented mode of operating the cluster, and wherein at least two radio access nodes of the cluster communicate redundantly in the robustness-oriented mode; and wherein the radio access nodes of the cluster communicate non-redundantly in the throughput-oriented mode, wherein in the robustness-oriented mode the same copy of a data packet is transmitted to all of the at least two radio access nodes within the cluster, and wherein in the throughput-oriented mode different data packets (602, 604) are transmitted to the radio access nodes within the cluster. receiving information from at least one of the user equipment and the radio access nodes, wherein the information is indicative of a radio quality of the radio communication; and changing, based on the received information, a number of radio access nodes (304, 306) that redundantly communicate with the user equipment, wherein the changing step includes switching, based on the received information, between a robustness-oriented mode of operating the cluster and a throughput-oriented mode of operating the cluster, and wherein at least two radio access nodes of the cluster communicate redundantly in the robustness-oriented mode; and wherein the radio access nodes of the cluster communicate non-redundantly in the throughput-oriented mode, wherein in the robustness-oriented mode the same copy of a data packet is transmitted to all of the at least two radio access nodes within the cluster, and wherein in the throughput-oriented mode different data packets (602, 604) are transmitted to the radio access nodes within the cluster.
A hybrid media sheet, comprising: a media substrate; a front barrier layer comprising a first polyolefin applied to a front side of the media substrate; a back barrier layer comprising a second polyolefin applied to a back side of the media substrate; an adhesion promoting subbing layer applied to the front barrier layer; and an ink-receiving layer comprising a water-soluble polymer, a mordant, and particles of a metal- or semimetal-oxide applied to the adhesion promoting subbing layer, characterised in that the particles of the metal- or semimetal-oxide are present at a particles to water-soluble polymer ratio of 1:2 to 1:10 by weight. a media substrate; a front barrier layer comprising a first polyolefin applied to a front side of the media substrate; a back barrier layer comprising a second polyolefin applied to a back side of the media substrate; an adhesion promoting subbing layer applied to the front barrier layer; and an ink-receiving layer comprising a water-soluble polymer, a mordant, and particles of a metal- or semimetal-oxide applied to the adhesion promoting subbing layer, characterised in that the particles of the metal- or semimetal-oxide are present at a particles to water-soluble polymer ratio of 1:2 to 1:10 by weight.
A method for manufacturing an intravascular function element which can be inserted into a hollow organ and comprises at least one wire made of an alloy containing the alloy elements nickel and titanium, comprising the following steps: - providing a metal body of the wire with a metallic surface, then - forming a first oxide layer on the metallic surface of the metal body, then - performing a heat treatment of the wire in a salt bath containing nitrogen for thermal development of a second mixed oxide layer on the first oxide layer, wherein the steps for forming the first and second oxide layers are carried out in such a way that the total layer thickness amounts to 15 nm to 100 nm, and the mixed oxide layer contains TiO 2 and at least titanium oxynitride and/or titanium nitride, wherein the salt bath contains a mixture of potassium nitrate and sodium nitrite, wherein the amount of potassium nitrate is greater than the amount of sodium nitrite. - providing a metal body of the wire with a metallic surface, then - forming a first oxide layer on the metallic surface of the metal body, then - performing a heat treatment of the wire in a salt bath containing nitrogen for thermal development of a second mixed oxide layer on the first oxide layer, wherein the steps for forming the first and second oxide layers are carried out in such a way that the total layer thickness amounts to 15 nm to 100 nm, and the mixed oxide layer contains TiO 2 and at least titanium oxynitride and/or titanium nitride, wherein the salt bath contains a mixture of potassium nitrate and sodium nitrite, wherein the amount of potassium nitrate is greater than the amount of sodium nitrite.
An operating table with a column, a support surface and a hydraulic power unit arranged in the column; having a first pair of hydraulic cylinders (32, 34) for adjusting a first support surface segment of the support surface; having a second pair of hydraulic cylinders (36, 38) for adjusting a second support surface segment of the support surface; and as characterizing special features: having a first valve unit integrated into the support surface for controlling the first pair of hydraulic cylinders (32, 34); and having a second valve unit integrated into the support surface for controlling the second pair of hydraulic cylinders (36, 38); wherein the first valve unit and the second valve unit are hydraulically connected to the hydraulic power unit via a supply line and a return line only. having a first valve unit integrated into the support surface for controlling the first pair of hydraulic cylinders (32, 34); and having a second valve unit integrated into the support surface for controlling the second pair of hydraulic cylinders (36, 38);
A drape assembly for use with a camera unit and a tracking element of a surgical system, the camera unit including a casing and a plurality of optical sensors supported by the casing for detecting the tracking element, the casing including a base and a post extending upwardly from the base, the drape assembly comprising: a drape having a flexible section configured to drape over the post of the casing to cover the casing and the plurality of optical sensors; and a collar configured to engage the post to trap said flexible section of said drape between said collar and the post. a drape having a flexible section configured to drape over the post of the casing to cover the casing and the plurality of optical sensors; and a collar configured to engage the post to trap said flexible section of said drape between said collar and the post.
An echo suppression device comprising: a suppressing unit configured to generate a corrected sound signal by suppressing an echo signal representing an echo generated by collecting, by a sound input unit (4; 4-1), a sound arising from a reproduction sound signal reproduced by a sound output unit; a distortion suppression gain deciding unit configured to obtain a gain to attenuate the corrected sound signal according to a degree of distortion of the echo signal with which intensity of the echo signal non-linearly changes with respect to an intensity change of the reproduction sound signal, the distortion suppression gain deciding unit being configured to calculate the degree of distortion based on a power of the reproduction sound signal and a correlation value between the reproduction sound signal and the echo signal; and a distortion correcting unit configured to suppress the corrected sound signal according to the gain. a suppressing unit configured to generate a corrected sound signal by suppressing an echo signal representing an echo generated by collecting, by a sound input unit (4; 4-1), a sound arising from a reproduction sound signal reproduced by a sound output unit; a distortion suppression gain deciding unit configured to obtain a gain to attenuate the corrected sound signal according to a degree of distortion of the echo signal with which intensity of the echo signal non-linearly changes with respect to an intensity change of the reproduction sound signal, the distortion suppression gain deciding unit being configured to calculate the degree of distortion based on a power of the reproduction sound signal and a correlation value between the reproduction sound signal and the echo signal; and a distortion correcting unit configured to suppress the corrected sound signal according to the gain.
A method for energy saving management in a network management system, comprising: receiving, by an integrated reference point agent, IRPAgent, an energy saving policy sent by an integrated reference point manager, IRPManager, wherein the energy saving policy comprises an identifier of a coverage backup entity for energy saving and further comprises policy information of energy saving activation and/or policy information of energy saving deactivation; performing, by the IRPAgent, energy saving management on a base station according to the energy saving policy. receiving, by an integrated reference point agent, IRPAgent, an energy saving policy sent by an integrated reference point manager, IRPManager, wherein the energy saving policy comprises an identifier of a coverage backup entity for energy saving and further comprises policy information of energy saving activation and/or policy information of energy saving deactivation; performing, by the IRPAgent, energy saving management on a base station according to the energy saving policy.
A protective helmet comprising: - a rigid outer shell; - an inner structure located inside the rigid outer shell and adjustable to the head of a user, said inner structure comprising a basket and a band, the basket and the band being intended to be positioned respectively at the back and at the front of the head, the protective helmet being characterized in that the inner structure also comprises at least two separate shock-absorbing means secured to the band; and in that it also comprises: - adjusting means of the inner structure; the shock-absorbing means being displacement discs each comprising: - an outer ring; - a central "bead" or tenon; - a plurality of deformable arms, the two ends of which substantially tangentially connect the outer ring and radially connect the central bead; the deformable arms having a length of at least 1.5 times the radius of the outer ring so as to be able to form, by deformation, a conical and elastic structure, the central bead of which is located at the top and is in contact with the rigid outer shell, and in that the displacement discs are further secured to the inner face of the rigid outer shell, such that in static position, the inner structure is separated from the rigid outer shell by an interval. - a rigid outer shell; - an inner structure located inside the rigid outer shell and adjustable to the head of a user, said inner structure comprising a basket and a band, the basket and the band being intended to be positioned respectively at the back and at the front of the head, the protective helmet being characterized in that the inner structure also comprises at least two separate shock-absorbing means secured to the band; - adjusting means of the inner structure; - an outer ring; - a central "bead" or tenon; - a plurality of deformable arms, the two ends of which substantially tangentially connect the outer ring and radially connect the central bead;
An emergency lock adapted to be unlocked from the inside, comprising: - a bolt adapted to be moved between a locked position and an unlocked position, - an inner square rotatable about a first axis between a first angular position and a second angular position, - an outer square rotatable about the first axis, the rotation of the outer square being independent of the rotation of the inner square, - a driver adapted to be integral with the inner square in rotation about the first axis, - an indexing nut (30, 110) adapted to be integral with the driver in rotation about the first axis, the indexing nut (30, 110) comprising a housing (34, 114), - a fork adapted to be positioned in the housing (34, 114) of the indexing nut (30, 110) so as to be integral with the indexing nut (30, 110) in rotation about the first axis, the fork also being articulated with respect to the bolt so that a rotation of the inner square between the first angular position and the second angular position is adapted to cause a displacement of the bolt between the locked position and the unlocked position. - a bolt adapted to be moved between a locked position and an unlocked position, - an inner square rotatable about a first axis between a first angular position and a second angular position, - an outer square rotatable about the first axis, the rotation of the outer square being independent of the rotation of the inner square, - a driver adapted to be integral with the inner square in rotation about the first axis, - an indexing nut (30, 110) adapted to be integral with the driver in rotation about the first axis, the indexing nut (30, 110) comprising a housing (34, 114), - a fork adapted to be positioned in the housing (34, 114) of the indexing nut (30, 110) so as to be integral with the indexing nut (30, 110) in rotation about the first axis, the fork also being articulated with respect to the bolt so that a rotation of the inner square between the first angular position and the second angular position is adapted to cause a displacement of the bolt between the locked position and the unlocked position.