mhurhangee/ep-ind-claims huggingface dataset:
A surgical robotic system comprising: a robotic manipulator; a surgical tool coupled to the robotic manipulator and configured to hold a screw and to rotate the screw about a rotational axis, the screw being self-tapping and having a known thread geometry; a navigation system configured to track a position of a target site; and a robotic controller coupled to the robotic manipulator and the navigation system, the robotic controller comprising memory for storing the known thread geometry and wherein the robotic controller is configured to: control movement of the robotic manipulator to maintain the rotational axis of the surgical tool along a planned trajectory with respect to the target site based on the tracked position of the target site, and autonomously control the surgical tool to rotate the screw at a rotational rate about the rotational axis and to linearly advance the screw at an advancement rate along the planned trajectory, wherein the rotational rate and the advancement rate are proportional to the known thread geometry stored in the memory. a robotic manipulator; a surgical tool coupled to the robotic manipulator and configured to hold a screw and to rotate the screw about a rotational axis, the screw being self-tapping and having a known thread geometry; a navigation system configured to track a position of a target site; and a robotic controller coupled to the robotic manipulator and the navigation system, the robotic controller comprising memory for storing the known thread geometry and wherein the robotic controller is configured to: control movement of the robotic manipulator to maintain the rotational axis of the surgical tool along a planned trajectory with respect to the target site based on the tracked position of the target site, and autonomously control the surgical tool to rotate the screw at a rotational rate about the rotational axis and to linearly advance the screw at an advancement rate along the planned trajectory, wherein the rotational rate and the advancement rate are proportional to the known thread geometry stored in the memory. control movement of the robotic manipulator to maintain the rotational axis of the surgical tool along a planned trajectory with respect to the target site based on the tracked position of the target site, and autonomously control the surgical tool to rotate the screw at a rotational rate about the rotational axis and to linearly advance the screw at an advancement rate along the planned trajectory, wherein the rotational rate and the advancement rate are proportional to the known thread geometry stored in the memory.
Lithium cobalt oxide powder for use as an active positive electrode material in lithium-ion batteries, having a d50 of more than 15 μm, a specific surface area of less than 0.2 m 2 /g, an OH - content measured by acid-base titration of an aqueous dispersion of the lithium cobalt oxide powder between 0.010 and 0.015 wt%, more preferably between 0.0125 and 0.015, said lithium cobalt oxide powder further comprising Mg as doping element with a Mg to Co atomic ratio between 0.001 and 0.05, said powder being characterized in that it has a Li to Co atomic ratio between 0.980 and 1.010 and a Li to the sum of Co and Mg atomic ratio between 0.980 and less than 1.000.
A blood treatment device, in particular a dialysis machine, for use in blood treatment therapies, particularly renal replacement therapies, the blood treatment device comprising: an extracorporeal blood circuit, a dialyzer and a dialysis fluid circuit, the extracorporeal blood circuit and the dialysis fluid circuit separated from each other via a membrane provided in the dialyzer, via which blood is filterable; at least one substitution solution pump (36, 56), which is configured to supply a substitution solution to the extracorporeal blood circuit before and/or after the dialyzer; an ultrafiltrate pressure sensor configured to measure a pressure in the dialysis fluid circuit after the dialyzer; and a control unit configured to automatically reduce a flow rate of the at least one substitution solution pump (36, 56) when an ultrafiltrate pressure measured by the ultrafiltrate pressure sensor drops during an ongoing blood treatment therapy, characterized in that the control unit is configured to reduce the flow rate of the at least one substitution solution pump (36, 56) such that a stable ultrafiltrate pressure is achieved, which keeps at least a predetermined distance from a low-pressure warning threshold. an extracorporeal blood circuit, a dialyzer and a dialysis fluid circuit, the extracorporeal blood circuit and the dialysis fluid circuit separated from each other via a membrane provided in the dialyzer, via which blood is filterable; at least one substitution solution pump (36, 56), which is configured to supply a substitution solution to the extracorporeal blood circuit before and/or after the dialyzer; an ultrafiltrate pressure sensor configured to measure a pressure in the dialysis fluid circuit after the dialyzer; and a control unit configured to automatically reduce a flow rate of the at least one substitution solution pump (36, 56) when an ultrafiltrate pressure measured by the ultrafiltrate pressure sensor drops during an ongoing blood treatment therapy, characterized in that the control unit is configured to reduce the flow rate of the at least one substitution solution pump (36, 56) such that a stable ultrafiltrate pressure is achieved, which keeps at least a predetermined distance from a low-pressure warning threshold.
A method for producing (meth)acrylic acid comprising: the step for producing (meth)acrylic acid-containing gas over a long period by subjecting a raw material for (meth)acrylic acid to catalytic vapor phase oxidation by molecular oxygen-containing gas, in the presence of an oxidation catalyst; then the step for cooling said (meth)acrylic acid-containing gas; and then the step for obtaining a (meth)acrylic acid solution by introducing said cooled gas to an absorption tower and contacting with an absorbing agent for acrylic acid to separate non-condensable gas, characterized in that the (meth)acrylic acid solution with a high concentration of equal to or higher than 75% by mass is obtained, by setting lower limit of cooling temperature in the step for cooling said (meth)acrylic acid-containing gas, from operation condition of the step for obtaining the (meth)acrylic acid solution, and controlling cooling of said gas during whole reaction period so that said gas does not become below said lower limit of cooling temperature, wherein temperature of (meth)acrylic acid-containing gas to be supplied to said absorption tower is controlled at from 200 to 300°C, and wherein temperature fluctuation range of (meth)acrylic acid-containing gas to be supplied to said absorption tower is controlled within 40°C. the step for producing (meth)acrylic acid-containing gas over a long period by subjecting a raw material for (meth)acrylic acid to catalytic vapor phase oxidation by molecular oxygen-containing gas, in the presence of an oxidation catalyst; then the step for cooling said (meth)acrylic acid-containing gas; and then the step for obtaining a (meth)acrylic acid solution by introducing said cooled gas to an absorption tower and contacting with an absorbing agent for acrylic acid to separate non-condensable gas,
Drive belt (1, 10), having a main body of a free-radically crosslinked polymeric material having elastic properties, comprising a cover ply (2, 11) as belt backing and also a substructure (5, 13) having a power transmission zone (8, 14), wherein at least one textile tensile strand (4, 12) in cord construction is embedded in the main body, or an interply of a free-radically crosslinked polymeric material having elastic properties is disposed between the cover ply (2, 11) and the substructure (5, 13), wherein at least one textile tensile strand (4, 12) in cord construction is embedded in the interply, or at least one textile tensile strand (4, 12) in cord construction forms a cord ply, wherein an interply of a free-radically crosslinked polymeric material having elastic properties is disposed between the cord ply and the cover ply and/or between the cord ply and the substructure (5, 13), wherein the textile tensile strand (4, 12) is completely or partially endowed with an adhesion promoter which contains at least one partially or completely blocked isocyanate, characterized in that the isocyanate is completely or partially blocked with 3,5-dimethylpyrazole, caprolactam, butanone oxime, malonate ester, acetoacetate or secondary amines.
A method for creating, within a server providing an Internet service for guaranteeing the integrity of electronic messages, an electronic message the integrity of which is guaranteed and verifiable according to the MIME standard based on an electronic message according to the MIME standard comprising, according to this standard, a header comprising at least data regarding routing and regarding content type, an address of the sender and at least one recipient address, and a body comprising a message content, the MIME standard allowing the insertion, into the header, of one or more extension fields as defined in the MIME standard or user-defined fields, these fields comprising a pair formed of at least one tag allowing identifying the field and of a value, a. this method comprising the steps of: b. receiving the electronic message the integrity of which is to be guaranteed, c. calculating an integrity value of the electronic message, d. storing the integrity value in a transaction of a blockchain, e. receiving a transaction identifier, f. inserting the transaction identifier as the value associated with a specific tag in an extension field defined in the standard or user-defined field in the header of the electronic message the integrity of which is to be guaranteed, the electronic message thus obtained constituting the message the integrity of which is guaranteed and verifiable. a. this method comprising the steps of: b. receiving the electronic message the integrity of which is to be guaranteed, c. calculating an integrity value of the electronic message, d. storing the integrity value in a transaction of a blockchain, e. receiving a transaction identifier, f. inserting the transaction identifier as the value associated with a specific tag in an extension field defined in the standard or user-defined field in the header of the electronic message the integrity of which is to be guaranteed, the electronic message thus obtained constituting the message the integrity of which is guaranteed and verifiable.
A screen vibration system, comprising: multiple screen vibrator assemblies (1212a-c) positionable proximate an area of a screen on which images are displayed, the multiple screen vibrator assemblies (1212a-c) being configured to displace the screen; characterised in that a position of at least one screen vibrator assembly (1212a-c) is adjustable based on portions of the screen experiencing more sag. multiple screen vibrator assemblies (1212a-c) positionable proximate an area of a screen on which images are displayed, the multiple screen vibrator assemblies (1212a-c) being configured to displace the screen; characterised in that a position of at least one screen vibrator assembly (1212a-c) is adjustable based on portions of the screen experiencing more sag.
A secondary battery comprising: an electrode assembly comprising an uncoated portion tab (114, 115); a current collector member (150, 160) connected to the uncoated portion tab (114, 115) protruding by a length from a side of the electrode assembly and bent together with the uncoated portion tab (114, 115) to the side of the electrode assembly; and a tape member (119A, 119B) covering connected and bent regions of the uncoated portion tab (114, 115) and the current collector member (150, 160), and a retainer (119C, 119D attached to the tape member (119A, 119B) and a region of the electrode assembly facing the side of the electrode assembly, the retainer (119C, 119D further being attached to the bent region of the current collector member (150, 160) or the bent region of the uncoated portion tab (114, 115). an electrode assembly comprising an uncoated portion tab (114, 115); a current collector member (150, 160) connected to the uncoated portion tab (114, 115) protruding by a length from a side of the electrode assembly and bent together with the uncoated portion tab (114, 115) to the side of the electrode assembly; and a tape member (119A, 119B) covering connected and bent regions of the uncoated portion tab (114, 115) and the current collector member (150, 160), and a retainer (119C, 119D attached to the tape member (119A, 119B) and a region of the electrode assembly facing the side of the electrode assembly, the retainer (119C, 119D further being attached to the bent region of the current collector member (150, 160) or the bent region of the uncoated portion tab (114, 115).
A method of performing a transmission, comprising: scheduling a user equipment, UE, to perform a channel transmission by using a first resource; performing the channel transmission on a first portion of the first resource by using a first transmission power level; and performing the channel transmission on a second portion of the first resource by using a second transmission power level, wherein the first transmission power level is smaller than the second transmission power level; and receiving indication of a second resource; wherein the first resource and the second resource overlap on a OFDM symbol, the first portion comprise resource element(s) on the OFDM symbol which does not overlap with the second resource, and the second portion is a non-overlapping portion which does not overlap with the second resource. scheduling a user equipment, UE, to perform a channel transmission by using a first resource; performing the channel transmission on a first portion of the first resource by using a first transmission power level; and performing the channel transmission on a second portion of the first resource by using a second transmission power level, wherein the first transmission power level is smaller than the second transmission power level; and receiving indication of a second resource; wherein the first resource and the second resource overlap on a OFDM symbol, the first portion comprise resource element(s) on the OFDM symbol which does not overlap with the second resource, and the second portion is a non-overlapping portion which does not overlap with the second resource.
A stethoscope head with adjustable audio frequency, comprising: a head body; a diaphragm; and a fastener; wherein said diaphragm is provided with an annular step and a footing, said diaphragm being disposed on a sound collecting surface at a front side of said head body and being fastened on said head body by said fastener; wherein an outer marginal part of the front side of said head body is provided with an annular step, and screw threads are provided on a step surface of said annular step; wherein an annular groove is disposed at the sound collecting surface at an inner side surface of said annular step, and said inner side surface of said annular groove and a bottom surface of said annular groove form an obtuse angle γ, and 100° ≤γ≤ 145°; wherein said diaphragm footing is disposed in said annular groove; and wherein said fastener includes a ring A and a ring B each of which having an upper surface (113,114) located on a same horizontal plane, said ring B placed in said ring A, said external diameter of said ring B being the same with an internal diameter of said ring A, an inner wall of said ring A provided with screw threads which match with the screw threads on said step surface; wherein the sound collecting surface at the inner side of the annular groove is provided with an annular protrusion and a recess is disposed at the annular protrusion; characterized in that said footing of the diaphragm is placed in the annular groove such that the bottom edge of the inner surface of the footing of the diaphragm contacts the inner side surface of the recess. a head body; a diaphragm; and a fastener; wherein said diaphragm is provided with an annular step and a footing, said diaphragm being disposed on a sound collecting surface at a front side of said head body and being fastened on said head body by said fastener; wherein an outer marginal part of the front side of said head body is provided with an annular step, and screw threads are provided on a step surface of said annular step; wherein an annular groove is disposed at the sound collecting surface at an inner side surface of said annular step, and said inner side surface of said annular groove and a bottom surface of said annular groove form an obtuse angle γ, and 100° ≤γ≤ 145°; wherein said diaphragm footing is disposed in said annular groove; and wherein said fastener includes a ring A and a ring B each of which having an upper surface (113,114) located on a same horizontal plane, said ring B placed in said ring A, said external diameter of said ring B being the same with an internal diameter of said ring A, an inner wall of said ring A provided with screw threads which match with the screw threads on said step surface; wherein the sound collecting surface at the inner side of the annular groove is provided with an annular protrusion and a recess is disposed at the annular protrusion; characterized in that said footing of the diaphragm is placed in the annular groove such that the bottom edge of the inner surface of the footing of the diaphragm contacts the inner side surface of the recess.
A method at a network element in a wireless communication system, comprising transmitting, to a user equipment, a downlink message including a first control channel element for deriving physical uplink control channel resources, the first control channel element being associated to at least one of a first orthogonal resource and a second orthogonal resource; receiving a transmission from the user equipment; and characterized in that the method further comprises: separating the transmission into a first modulated message and a second modulated message using the first orthogonal resource and the second orthogonal resource; the method further comprising assigning to the user equipment an offset from the first control channel element to a second control channel element both of the downlink message, wherein the downlink message is a physical downlink control channel message, and the selection of the second control channel element is limited to those control channel elements of the downlink message corresponding to a physical uplink control channel resource transmitted in the same physical uplink control channel resource block as the physical uplink control channel resource corresponding to the first control channel element. transmitting, to a user equipment, a downlink message including a first control channel element for deriving physical uplink control channel resources, the first control channel element being associated to at least one of a first orthogonal resource and a second orthogonal resource; receiving a transmission from the user equipment; and characterized in that the method further comprises: separating the transmission into a first modulated message and a second modulated message using the first orthogonal resource and the second orthogonal resource; the method further comprising assigning to the user equipment an offset from the first control channel element to a second control channel element both of the downlink message, wherein the downlink message is a physical downlink control channel message, and the selection of the second control channel element is limited to those control channel elements of the downlink message corresponding to a physical uplink control channel resource transmitted in the same physical uplink control channel resource block as the physical uplink control channel resource corresponding to the first control channel element. separating the transmission into a first modulated message and a second modulated message using the first orthogonal resource and the second orthogonal resource; the method further comprising assigning to the user equipment an offset from the first control channel element to a second control channel element both of the downlink message, wherein the downlink message is a physical downlink control channel message, and the selection of the second control channel element is limited to those control channel elements of the downlink message corresponding to a physical uplink control channel resource transmitted in the same physical uplink control channel resource block as the physical uplink control channel resource corresponding to the first control channel element.
A photoresist stripper composition consisting of: (a) from 2.5 to 50 % by weight of at least one choline compound; (b) from 10 to 90 % by weight of at least one polar aprotic solvent selected from N-methyl pyrrolidone, dimethyl sulfoxide, dimethylformamide, 1,3-dimethyl-2-imidazolidinone, propylene carbonate and any combination thereof; (c) from 11 to 87.5 % by weight of water; and (d) from 0 to 50% by weight of at least one alkaline substance selected from sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate, calcium carbonate, magnesium carbonate, calcium hydroxide, magnesium hydroxide, aminopyridine, butylamine, chloridine, diethanolamine, dimethylamine, dimethylimidazole, ephedrine, ethanolamine, ethylmorpholine, glycylglycine, hydroxypyroline, piperidine, propylamine, methylamine, methylimidazole, triethylamine, triethanolamine, trimethylamine, tris(hydroxymethyl)aminomethanol, 2-amino-2-ethyl-1,3-propanediol, 2-amino-2-methyl-1,3-propanediol, 2-amino-2-methyl-1-propanol, and any combination thereof; wherein the weight percentages of all components add up to 100% by weight. (a) from 2.5 to 50 % by weight of at least one choline compound; (b) from 10 to 90 % by weight of at least one polar aprotic solvent selected from N-methyl pyrrolidone, dimethyl sulfoxide, dimethylformamide, 1,3-dimethyl-2-imidazolidinone, propylene carbonate and any combination thereof; (c) from 11 to 87.5 % by weight of water; and (d) from 0 to 50% by weight of at least one alkaline substance selected from sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate, calcium carbonate, magnesium carbonate, calcium hydroxide, magnesium hydroxide, aminopyridine, butylamine, chloridine, diethanolamine, dimethylamine, dimethylimidazole, ephedrine, ethanolamine, ethylmorpholine, glycylglycine, hydroxypyroline, piperidine, propylamine, methylamine, methylimidazole, triethylamine, triethanolamine, trimethylamine, tris(hydroxymethyl)aminomethanol, 2-amino-2-ethyl-1,3-propanediol, 2-amino-2-methyl-1,3-propanediol, 2-amino-2-methyl-1-propanol, and any combination thereof;
Dishwasher, especially household dishwasher, for washing dishes, cutlery or other items to be washed, wherein the dishwasher has a door which is connected via one or more spring unit(s) to an immobile area of the dishwasher and, depending on its open position, is able to have a force applied to it in a different direction of movement, and wherein the spring unit comprises at least one pulling cable and a tension spring device connected to said cable in the installed state, characterised in that an end area of the pulling cable is connected rigidly to a dimensionally-stable fastening end, the rotational movement of which around an axis extending longitudinally in relation to the tension spring device is tightly restricted by being stopped by at least one external delimitation (19a; 19b; 19c).