mhurhangee/patent-ind-claim-en huggingface dataset:
An infusion pump comprising: an inlet valve ; an outlet valve ; a squeezing element located between the inlet valve and the outlet valve and configured to squeeze a fluid line coupled to the infusion pump; a pressure sensor ; and electric circuitry configured to: (i) perform at least one round of valve operation check prior to initiation of a delivery session of fluid to a subject, characterized in that the electric circuitry is further configured to: (ii) subsequently to (i), in an air detection phase that occurs after an intake phase and before a delivery phase of at least one infusion pump cycle during a delivery session of fluid to the subject, determine, for the at least one infusion pump cycle, an absolute amount of air in the fluid line, wherein the at least one round of valve operation check and the determining of the amount of air in the fluid line each comprise the electric circuitry performing the steps of: (A) triggering closing the inlet valve to confine a section of the fluid line between the inlet valve and the outlet valve ; (B) triggering squeezing, utilizing the squeezing element , of the confined section of the fluid line ; (C) measuring the pressure within the confined section of the fluid line ; and (D) subsequently, triggering relieving of the pressure in the confined section of the fluid line , and wherein the at least one round of valve operation check further comprises the electric circuitry repeating the performance of steps (B)-(D) a plurality of times. an inlet valve ; an outlet valve ; a squeezing element located between the inlet valve and the outlet valve and configured to squeeze a fluid line coupled to the infusion pump; a pressure sensor ; and electric circuitry configured to: (i) perform at least one round of valve operation check prior to initiation of a delivery session of fluid to a subject, (i) perform at least one round of valve operation check prior to initiation of a delivery session of fluid to a subject, wherein the at least one round of valve operation check and the determining of the amount of air in the fluid line each comprise the electric circuitry performing the steps of: (A) triggering closing the inlet valve to confine a section of the fluid line between the inlet valve and the outlet valve ; (B) triggering squeezing, utilizing the squeezing element , of the confined section of the fluid line ; (C) measuring the pressure within the confined section of the fluid line ; and (D) subsequently, triggering relieving of the pressure in the confined section of the fluid line , and (A) triggering closing the inlet valve to confine a section of the fluid line between the inlet valve and the outlet valve ; (B) triggering squeezing, utilizing the squeezing element , of the confined section of the fluid line ; (C) measuring the pressure within the confined section of the fluid line ; and (D) subsequently, triggering relieving of the pressure in the confined section of the fluid line , and wherein the at least one round of valve operation check further comprises the electric circuitry repeating the performance of steps (B)-(D) a plurality of times.
Self-balancing vehicle, comprising: - two axially spaced wheels mounted on a main body , - an electric drive coupled to at least one wheel , - a control device designed to keep the vehicle in balance by controlling the drive, the vehicle being supported and thus balanced solely by the two wheels spaced apart from one another, - a receptacle for carrying and transporting a load, characterized in that the vehicle has an adjustment mechanism for linear displacement of the receptacle, which is fixedly connected to the main body and arranged such that the receptacle is adjustable by the linear displacement both along the longitudinal axis and along the vertical axis of the vehicle by inclining the front end of the adjusting mechanism downwardly with respect to the horizontal axis extending in the transverse direction of the self-balancing vehicle. - two axially spaced wheels mounted on a main body , - an electric drive coupled to at least one wheel , - a control device designed to keep the vehicle in balance by controlling the drive, the vehicle being supported and thus balanced solely by the two wheels spaced apart from one another, - a receptacle for carrying and transporting a load,
A composition comprising multiple carrier-protein antigen conjugates, wherein the multiple carrier-protein antigen conjugates comprise at least 20 or 21 distinct carrier protein-antigen conjugates, wherein the antigen is a capsular polysaccharide of Streptococcus pneumoniae , and wherein: (a) the capsular polysaccharide in each distinct carrier protein-antigen conjugate is from a different serotype of Streptococcus pneumoniae ; (b) the carrier protein of the carrier protein-antigen conjugates is a polypeptide having at least 90% sequence identity to SEQ ID NO:1 and comprising at least one T-cell activating epitope and at least two non-natural amino acids (nnAAs) which are 2-amino-3-(4-(azidomethyl)phenyl)propanoic acid (pAMF), wherein the capsular polysaccharides are conjugated to the pAMF residues; (c) there is a distinct carrier protein-antigen conjugate for each of Streptococcus pneumoniae serotypes 1, 3, 4, 5, 6A, 6B, 7F, 8, 9V, 10A, 11A, 12F, 14, 15B, 18C, 19A, 19F, 22F, 23F, and 33F; and (d) the overall weight by weight ratio of all serotype polysaccharides to carrier protein in the composition is at least 0.8. (a) the capsular polysaccharide in each distinct carrier protein-antigen conjugate is from a different serotype of Streptococcus pneumoniae ; (b) the carrier protein of the carrier protein-antigen conjugates is a polypeptide having at least 90% sequence identity to SEQ ID NO:1 and comprising at least one T-cell activating epitope and at least two non-natural amino acids (nnAAs) which are 2-amino-3-(4-(azidomethyl)phenyl)propanoic acid (pAMF), wherein the capsular polysaccharides are conjugated to the pAMF residues; (c) there is a distinct carrier protein-antigen conjugate for each of Streptococcus pneumoniae serotypes 1, 3, 4, 5, 6A, 6B, 7F, 8, 9V, 10A, 11A, 12F, 14, 15B, 18C, 19A, 19F, 22F, 23F, and 33F; and (d) the overall weight by weight ratio of all serotype polysaccharides to carrier protein in the composition is at least 0.8.
A mobile platform transport system with an extendable arm comprising: - a frame ; and - an extendable arm comprising: - an extension module comprising at least two submodules secured to each other by means of telescopic guide rails ; and - a lifting module comprising: - a first structure ; and - a second structure coupled to a cylinder ; wherein: - the first structure including a ramped rail through which the second structure moves; - the second structure including bearings of the second structure at the base, which are set on the ramped rail of the first structure and enable the second structure to move when the cylinder is activated; characterized in - the lifting module including at least two stabilizer cylinders of the extendable arm. - a frame ; and - an extendable arm comprising: - an extension module comprising at least two submodules secured to each other by means of telescopic guide rails ; and - a lifting module comprising: - a first structure ; and - a second structure coupled to a cylinder ; wherein: - the first structure including a ramped rail through which the second structure moves; - the second structure including bearings of the second structure at the base, which are set on the ramped rail of the first structure and enable the second structure to move when the cylinder is activated; characterized in - the lifting module including at least two stabilizer cylinders of the extendable arm. - an extension module comprising at least two submodules secured to each other by means of telescopic guide rails ; and - a lifting module comprising: - a first structure ; and - a second structure coupled to a cylinder ; - a first structure ; and - a second structure coupled to a cylinder ; - the first structure including a ramped rail through which the second structure moves; - the second structure including bearings of the second structure at the base, which are set on the ramped rail of the first structure and enable the second structure to move when the cylinder is activated; characterized in - the lifting module including at least two stabilizer cylinders of the extendable arm.
A process for reducing the stickiness of a composition of a chewing gum core to an internal contact surface of a first chewing gum processing machinery in a chewing gum preparation process comprising the following steps: a) providing isomaltulose in an amount suitable to reduce stickiness of the composition to the surface, wherein the isomaltulose particles have a diameter of less than 100 μm, b) providing a chewing gum base composition and c) kneading the isomaltulose provided in step a) with the chewing gum base composition provided in step b) and obtaining the isomaltulose-containing composition of a chewing gum core, wherein step c) is carried out on the internal contact surface of the first chewing gum processing machinery, and wherein the amount of isomaltulose provided in step a) is at least 10 weight-% of the isomaltulose-containing composition of the chewing gum core obtained in step c). a) providing isomaltulose in an amount suitable to reduce stickiness of the composition to the surface, wherein the isomaltulose particles have a diameter of less than 100 μm, b) providing a chewing gum base composition and c) kneading the isomaltulose provided in step a) with the chewing gum base composition provided in step b) and obtaining the isomaltulose-containing composition of a chewing gum core,
A process to form a "functionalized ethylene-based polymer" from an ethylene-based polymer and at least one polar compound; wherein the at least one polar compound is an anhydride-containing and/or carboxylic acid-containing compound; said process comprising thermally treating a composition comprising the ethylene-based polymer, the at least one polar compound, and at least one peroxide, in at least one extruder comprising at least one barrel, to form a polymer melt; wherein the temperature of the polymer melt is from 160°C to 195°C; and wherein the at least one peroxide has a half life, at the maximum barrel temperature of the at least one extruder, of less than 1⁄4 of the minimum residence time of the polymer melt in the at least one extruder. wherein the at least one polar compound is an anhydride-containing and/or carboxylic acid-containing compound; said process comprising thermally treating a composition comprising the ethylene-based polymer, the at least one polar compound, and at least one peroxide, in at least one extruder comprising at least one barrel, to form a polymer melt; wherein the temperature of the polymer melt is from 160°C to 195°C; and wherein the at least one peroxide has a half life, at the maximum barrel temperature of the at least one extruder, of less than 1⁄4 of the minimum residence time of the polymer melt in the at least one extruder.
A cationic lipid of Formula A: wherein: R 1 and R 2 are each methyl; R 3 is H; n is 3; X is (C=O)O; L 1 is C 19 alkenyl; and L2 is selected from C 7 -C 9 alkyl and C 7 -C 9 alkenyl; or any pharmaceutically acceptable salt or stereoisomer thereof. R 1 and R 2 are each methyl; R 3 is H; n is 3; X is (C=O)O; L 1 is C 19 alkenyl; and L2 is selected from C 7 -C 9 alkyl and C 7 -C 9 alkenyl; or any pharmaceutically acceptable salt or stereoisomer thereof.
An optomechanical system for absorbing light or emitting light, comprising ▪ a static frame element , ▪ an optical arrangement comprising one or more optical layers capable of capturing incident light and transmitting transmitted light , wherein the optical arrangement is arranged to be able to capture the incident light from within and outside of the static frame element , ▪ a light absorbing/emitting substrate with a plurality of light absorbing/emitting elements capable of absorbing the transmitted light or emitting the incident light , ▪ a shifting mechanism for moving at least one of the layers of the optical arrangement relative to the light absorbing/emitting substrate or vice versa, wherein the shifting mechanism is arranged to move at least one of the layer of the optical arrangement or the light absorbing/emitting substrate translationally relative to the static frame element , through one or more translation element in such a way that the transmitted light can be optimally absorbed by the light absorbing/emitting substrate , or that the incident light emitted by the light absorbing/emitting substrate can be optimally transmitted by the optical arrangement , wherein the shifting mechanism further comprises one or more guiding elements , in such a way that the one or more guiding elements are capable of limiting the degrees of freedom of the translation element , and characterised in that the one or more guiding elements capable of limiting the degrees of freedom of the one or more translation elements are arranged in such a way that the relative position of the optical arrangement and the light absorption/emission substrate can be accurately adjusted by the shifting mechanism , and more specifically avoiding or minimizing relative rotations between the optical arrangement and the light absorbing/emitting substrate . ▪ a static frame element , ▪ an optical arrangement comprising one or more optical layers capable of capturing incident light and transmitting transmitted light , wherein the optical arrangement is arranged to be able to capture the incident light from within and outside of the static frame element , ▪ a light absorbing/emitting substrate with a plurality of light absorbing/emitting elements capable of absorbing the transmitted light or emitting the incident light , ▪ a shifting mechanism for moving at least one of the layers of the optical arrangement relative to the light absorbing/emitting substrate or vice versa,
An electrochemical reactor arranged in an exhaust passage of an internal combustion engine, wherein the electrochemical reactor comprises a honeycomb member at which a plurality of cells are formed, the honeycomb member comprising an upstream side partial honeycomb members and a downstream side partial honeycomb members arranged at a downstream side from the upstream side partial honeycomb members in the direction of exhaust flow; the upstream side partial honeycomb members comprises a plurality of first cells and a plurality of second cells arranged so as to at least partially adjoin the first cells through partition wall base members including an ion conductive solid electrolyte, a cathode layer being provided on the surface of the partition wall base members defining the first cells and an anode layer being provided on the surface of the partition wall base member defining the second cells ; the downstream side partial honeycomb members comprises a plurality of third cells and a plurality of fourth cells arranged so as to at least partially adjoin the third cells through partition wall base members including an ion conductive solid electrolyte, an anode layer being provided on the surface of the partition wall base members defining the third cells and a cathode layer being provided on the surface of the partition wall base members defining the fourth cells ; and the electrochemical reactor is configured so that all of the exhaust gas flowing through the first cells flows into the third cells and all of the exhaust gas flowing through the second cells flows into the fourth cells . the electrochemical reactor comprises a honeycomb member at which a plurality of cells are formed, the honeycomb member comprising an upstream side partial honeycomb members and a downstream side partial honeycomb members arranged at a downstream side from the upstream side partial honeycomb members in the direction of exhaust flow; the upstream side partial honeycomb members comprises a plurality of first cells and a plurality of second cells arranged so as to at least partially adjoin the first cells through partition wall base members including an ion conductive solid electrolyte, a cathode layer being provided on the surface of the partition wall base members defining the first cells and an anode layer being provided on the surface of the partition wall base member defining the second cells ; the downstream side partial honeycomb members comprises a plurality of third cells and a plurality of fourth cells arranged so as to at least partially adjoin the third cells through partition wall base members including an ion conductive solid electrolyte, an anode layer being provided on the surface of the partition wall base members defining the third cells and a cathode layer being provided on the surface of the partition wall base members defining the fourth cells ; and the electrochemical reactor is configured so that all of the exhaust gas flowing through the first cells flows into the third cells and all of the exhaust gas flowing through the second cells flows into the fourth cells .
A contact piece holder for a slip ring assembly of an electromechanical machine or the like, the contact piece holder comprising a holding means , a connection means and a clamping means , the holding means serving for holding the connection means and the clamping means on a machine, the clamping means serving for positioning a contact piece with respect to a slip ring on the machine, the clamping means forming a receptacle for the contact piece, the connection means serving for transferring electric energy to the contact piece, the contact piece being contacted with the slip ring by means of the clamping means by forming a clamping force for transferring electric energy to the slip ring, the receptacle being realized such that the contact piece is mounted on the receptacle on only one end of the contact piece opposite the slip ring, characterized in that the clamping means is realized such that the contact piece is loosely clamped between the receptacle and the slip ring, the receptacle being realized such that the contact piece is moved rotationally in three axes with respect to the slip ring.
A method of immunoassay for detecting or quantitating in a biofluid sample a C-terminal epitope of the α1 chain of collagen type VIII comprised in the C-terminus amino acid sequence SFSGYLLYPM-COOH, wherein said method comprises contacting said sample comprising said C-terminal epitope with an antibody specifically reactive with an epitope comprised in the C-terminus amino acid sequence SFSGYLLYPM-COOH, and determining the amount of binding of said antibody, wherein said biofluid is serum, or plasma.
A voice interaction method for a vehicle, wherein the vehicle communicates with a server and has a voice interaction software development kit pre-installed on a map client thereof, the voice interaction method comprising: acquiring a user's speech request for display of energy supplement points when the map client is currently in a surrounding reality display mode ; receiving an instruction callback issued by the voice interaction software development kit based on an instruction to display energy supplement points, after the voice interaction software development kit receives the instruction to display energy supplement points that was generated and returned by the server in response to the speech request ; and controlling the display of energy supplement points on the map client based on the instruction callback , wherein said controlling comprises: generating a command for exiting the surrounding reality display mode based on the instruction callback, and controlling, based on the generated command, the map client to exit the surrounding reality display mode and displaying a standard map interface . acquiring a user's speech request for display of energy supplement points when the map client is currently in a surrounding reality display mode ; receiving an instruction callback issued by the voice interaction software development kit based on an instruction to display energy supplement points, after the voice interaction software development kit receives the instruction to display energy supplement points that was generated and returned by the server in response to the speech request ; and controlling the display of energy supplement points on the map client based on the instruction callback , wherein said controlling comprises: generating a command for exiting the surrounding reality display mode based on the instruction callback, and controlling, based on the generated command, the map client to exit the surrounding reality display mode and displaying a standard map interface . generating a command for exiting the surrounding reality display mode based on the instruction callback, and controlling, based on the generated command, the map client to exit the surrounding reality display mode and displaying a standard map interface .
A roping harness comprising a waistband and leg loops , at least one of the waistband and each leg loop being provided with a device for ajusting circumference configured to adjust the circumference of the waistband or each of the leg loops , characterized in that the device for ajusting circumference has a first end formed by a first wire element having a first cross-section comprising a plurality of projecting areas having a second cross-section whose transverse cross-section is larger than the transverse cross-section of the first cross-section, and in that a second end of the device for ajusting circumference is formed by a choke loop .
A gas detector comprising: a thermal-conductivity-type gas detection element configured such that at least a heat-generating resistor and an insulation layer are laminated on a semiconductor substrate , and the insulation layer covers the heat-generating resistor ; and control means configured to control energization of the heat-generating resistor and detect a gas-to-be-detected on the basis of resistance of the energized heat-generating resistor , the gas detection element has a gas impermeable oxide film laminated on a surface of the insulation layer in such a manner as to cover the insulation layer , and the oxide film contains at least one of Ta, Nb, and Hf, and forms an outermost surface layer configured to come into contact with a gaseous atmosphere containing the gas-to-be-detected, wherein the insulation layer has a surface layer formed of silicon nitride or silicon oxide. a thermal-conductivity-type gas detection element configured such that at least a heat-generating resistor and an insulation layer are laminated on a semiconductor substrate , and the insulation layer covers the heat-generating resistor ; and control means configured to control energization of the heat-generating resistor and detect a gas-to-be-detected on the basis of resistance of the energized heat-generating resistor , the gas detection element has a gas impermeable oxide film laminated on a surface of the insulation layer in such a manner as to cover the insulation layer , and the oxide film contains at least one of Ta, Nb, and Hf, and forms an outermost surface layer configured to come into contact with a gaseous atmosphere containing the gas-to-be-detected, wherein the insulation layer has a surface layer formed of silicon nitride or silicon oxide.
A lithium ion secondary battery comprising a cathode, an anode, a separator and an electrolyte, wherein the anode comprises a negative current collector and a negative material layer, and the negative material layer comprises graphite having a graphitization degree of 94% to 98% and an average particle size D50 of 6μm to 18μm as negative active material.