mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for administering ketone bodies and/or ketone body precursors to a subject, the ketone body composition comprising: optically pure S-beta-hydroxybutyrate or a non-racemic mixture of S-beta-hydroxybutyrate and R-beta-hydroxybutyrate containing more than 50% and less than 100% by enantiomeric equivalents of S-beta-hydroxybutyrate and less than 50% and more than 0% by enantiomeric equivalents of R-beta-hydroxybutyrate, wherein the optically pure S-beta-hydroxybutyrate includes a mixture of at least one optically pure S-beta-hydroxybutyrate salt and optically pure S-beta-hydroxybutyric acid, wherein the optically pure S-beta-hydroxybutyrate comprises 90% to 99.9% by molar equivalents of the at least one optically pure S-beta-hydroxybutyrate salt and 10% to 0.1% by molar equivalents of the optically pure S-beta-hydroxybutyric acid, or wherein the non-racemic mixture of S-beta-hydroxybutyrate and R-beta-hydroxybutyrate includes: at least one S-beta-hydroxybutyrate salt; at least one R-beta-hydroxybutyrate salt; and at least one of S- or R-beta-hydroxybutyric acid, wherein the non-racemic mixture comprises 90% to 99.9% by molar equivalents of combined S-beta-hydroxybutyrate and R-beta-hydroxybutyrate salts and 10% to 0.1% by molar equivalents of S-beta-hydroxybutyric acid and/or R-beta-hydroxybutyric acid, and wherein the composition is a powder. optically pure S-beta-hydroxybutyrate or a non-racemic mixture of S-beta-hydroxybutyrate and R-beta-hydroxybutyrate containing more than 50% and less than 100% by enantiomeric equivalents of S-beta-hydroxybutyrate and less than 50% and more than 0% by enantiomeric equivalents of R-beta-hydroxybutyrate, wherein the optically pure S-beta-hydroxybutyrate includes a mixture of at least one optically pure S-beta-hydroxybutyrate salt and optically pure S-beta-hydroxybutyric acid, wherein the optically pure S-beta-hydroxybutyrate comprises 90% to 99.9% by molar equivalents of the at least one optically pure S-beta-hydroxybutyrate salt and 10% to 0.1% by molar equivalents of the optically pure S-beta-hydroxybutyric acid, or wherein the non-racemic mixture of S-beta-hydroxybutyrate and R-beta-hydroxybutyrate includes: at least one S-beta-hydroxybutyrate salt; at least one R-beta-hydroxybutyrate salt; and at least one of S- or R-beta-hydroxybutyric acid, wherein the non-racemic mixture comprises 90% to 99.9% by molar equivalents of combined S-beta-hydroxybutyrate and R-beta-hydroxybutyrate salts and 10% to 0.1% by molar equivalents of S-beta-hydroxybutyric acid and/or R-beta-hydroxybutyric acid, and wherein the composition is a powder. at least one S-beta-hydroxybutyrate salt; at least one R-beta-hydroxybutyrate salt; and at least one of S- or R-beta-hydroxybutyric acid, wherein the non-racemic mixture comprises 90% to 99.9% by molar equivalents of combined S-beta-hydroxybutyrate and R-beta-hydroxybutyrate salts and 10% to 0.1% by molar equivalents of S-beta-hydroxybutyric acid and/or R-beta-hydroxybutyric acid, and wherein the composition is a powder.
A refrigeration apparatus equipped with a refrigeration cycle in which a compressor , a condenser (4; 6), an expansion mechanism , and an evaporator (6; 4) are connected in a loop, the refrigeration apparatus comprising: a polymer catcher that is attached to piping interconnecting an outlet side of the compressor and an inlet side of the condenser and catches polymers of refrigerant circulating in the refrigeration cycle, and a four-way switching valve that is attached to the piping, wherein the refrigerant includes a compound represented by a molecular formula having one or more carbon-carbon unsaturated bonds, the polymer catcher is attached between the outlet side of the compressor and an inlet side of the four-way switching valve , the polymer catcher is a filter that suppresses passage of the polymers, and the material of the filter is metal. a polymer catcher that is attached to piping interconnecting an outlet side of the compressor and an inlet side of the condenser and catches polymers of refrigerant circulating in the refrigeration cycle, and a four-way switching valve that is attached to the piping, wherein the refrigerant includes a compound represented by a molecular formula having one or more carbon-carbon unsaturated bonds, the polymer catcher is attached between the outlet side of the compressor and an inlet side of the four-way switching valve , the polymer catcher is a filter that suppresses passage of the polymers, and the material of the filter is metal.
A vacuum pump , comprising: a pump main body ; and a control device disposed outside the pump main body, wherein the control device includes a cooling portion in which a cooling medium flow passage is formed, and an electrical component portion that has a heat generating component and is capable of being cooled by the cooling portion, the electrical component portion is attached to the cooling portion so that heat from the electrical component portion be transferable, the electrical component portion is provided with a circuit board that has the heat generating component mounted thereon and is fixed to the cooling portion, wherein the cooling medium flow passage is formed inside of a cooling pipe inserted into the cooling portion, characterised in that a mold portion at least partially covers the circuit board and the heat generating component, the heat is transferable toward the cooling portion via the mold portion, and in that the cooling pipe is partially exposed from the cooling portion to the electrical component portion side. a pump main body ; and a control device disposed outside the pump main body, wherein the control device includes a cooling portion in which a cooling medium flow passage is formed, and an electrical component portion that has a heat generating component and is capable of being cooled by the cooling portion, the electrical component portion is attached to the cooling portion so that heat from the electrical component portion be transferable, the electrical component portion is provided with a circuit board that has the heat generating component mounted thereon and is fixed to the cooling portion, wherein the cooling medium flow passage is formed inside of a cooling pipe inserted into the cooling portion, characterised in that a mold portion at least partially covers the circuit board and the heat generating component, the heat is transferable toward the cooling portion via the mold portion, and in that the cooling pipe is partially exposed from the cooling portion to the electrical component portion side.
A method for inferring a plantar pressure line , said plantar pressure line corresponding to the time evolution of the position of the barycenter of plantar pressures during the movement of an individual and including a plurality of successive positions of said barycenter of plantar pressures for a foot of said individual, said method being implemented by one or several microprocessors from movement data generated by at least one inertial unit coupled to a shoe worn by said individual or said individual's foot, said at least one inertial unit being configured to generate movement data for a plurality of instants of a stance phase of a foot of said individual, said method including the following steps: - loading a correlation model, said correlation model defining a relationship between a plurality of data obtained from plantar pressure sensors and a plurality of foot angle values relative to a predetermined reference frame, said relationship enabling the determination of the position of the barycenter of plantar pressures at each instant of a stance phase; - calculating foot angle values relative to the predetermined reference frame, from the movement data generated by the at least one inertial unit , over at least two instants of the stance phase of the foot of said individual; and - inferring a plurality of successive positions of the barycenter of plantar pressures to form the plantar pressure line of the said individual's foot, from the angle values calculated over the at least two instants of the stance phase of the foot and from the correlation model. - loading a correlation model, said correlation model defining a relationship between a plurality of data obtained from plantar pressure sensors and a plurality of foot angle values relative to a predetermined reference frame, said relationship enabling the determination of the position of the barycenter of plantar pressures at each instant of a stance phase; - calculating foot angle values relative to the predetermined reference frame, from the movement data generated by the at least one inertial unit , over at least two instants of the stance phase of the foot of said individual; and - inferring a plurality of successive positions of the barycenter of plantar pressures to form the plantar pressure line of the said individual's foot, from the angle values calculated over the at least two instants of the stance phase of the foot and from the correlation model.
A gas dome structure for a sealed and thermally insulating tank arranged inside a double hull defined by an inner hull and an outer hull ; said gas dome structure being intended to pass through the double hull and a ceiling wall of the tank comprising at least one thermally insulating barrier resting against the inner hull and a sealing membrane intended to be in contact with the fluid contained in the tank in such a way as to provide a path for vapor to flow between an inner space of the tank and at least one vapor header arranged outside the tank; the gas dome structure comprising: - an outer drum capable of passing through two openings provided respectively in the outer hull and in the inner hull ; - an inner drum that extends inside the outer drum , is secured to said outer drum , is open so as to communicate with the inner space of the tank and comprises a peripheral wall intended to be sealingly connected to the sealing membrane ; - an intermediate insulating gap arranged between the inner drum and the outer drum ; - the structure being characterized in that the outer drum comprises first and second collars that protrude radially outwards from the outer drum and that are respectively suitable for being welded to the outer hull , around the opening provided in the outer hull , and to the inner hull , around the opening provided in the inner hull . - an outer drum capable of passing through two openings provided respectively in the outer hull and in the inner hull ; - an inner drum that extends inside the outer drum , is secured to said outer drum , is open so as to communicate with the inner space of the tank and comprises a peripheral wall intended to be sealingly connected to the sealing membrane ; - an intermediate insulating gap arranged between the inner drum and the outer drum ; - the structure being characterized in that the outer drum comprises first and second collars that protrude radially outwards from the outer drum and that are respectively suitable for being welded to the outer hull , around the opening provided in the outer hull , and to the inner hull , around the opening provided in the inner hull .
Method for in-ovo sexing of fertilised and incubated avian eggs, in which the progress over time of the incubation of the respective avian egg until the formation of at least one blood vessel is monitored and subsequently the at least one blood vessel is analysed with a view to sexing, wherein the respective avian egg is measured non-invasively from the outside by means of NMR spectroscopy after the formation of at least one blood vessel, characterised in that the ratio of the intensities of the signals of the nucleobases from the DNA of the at least one blood vessel to the signals of the aromatic amino acids histidine, phenylalanine and tyrosine is determined, wherein this intensity ratio has an evaluable different value for blood from male and female embryos, wherein subsequently the sex of the respective avian egg is determined by an evaluation unit from the determined intensity ratio.
A process for preparing an acid resistant cellulose capsule comprising the steps of i) preparing 100 wt part of aqueous solution of solubilized cellulose including 15 - 25 wt part of cellulose; ii) adding and stirring 2.0 - 4.0 wt part of amide pectin and 0.1 - 1.0 wt part of iota-carrageenan as a gelling agent, and 0.01 - 0.2 wt part of potassium carbonate and 0.01 - 0.2 wt part of calcium gluconate as an auxiliary gelling agent to the aqueous solution of solubilized cellulose; iii) sequentially adding and stirring 0.01 - 0.1 wt part of glacial acetic acid as a pH neutralizing agent, 0.01 - 0.2 wt part of sucrose fatty acid ester and diacetylated monoglyceride as an emulsifying agent, 0.01 - 0.1 wt part of colloidal silica as a viscosity stabilizing agent, and 0.01 - 0.1 wt part of glycerin, PEG 4000 and/or propylene glycol as a plasticizing agent to the resulting admixture; and iv) allowing obtained product to stand and to be equilibrated with adjustment of its viscosity, and forming and drying a cellulose capsule. i) preparing 100 wt part of aqueous solution of solubilized cellulose including 15 - 25 wt part of cellulose; ii) adding and stirring 2.0 - 4.0 wt part of amide pectin and 0.1 - 1.0 wt part of iota-carrageenan as a gelling agent, and 0.01 - 0.2 wt part of potassium carbonate and 0.01 - 0.2 wt part of calcium gluconate as an auxiliary gelling agent to the aqueous solution of solubilized cellulose; iii) sequentially adding and stirring 0.01 - 0.1 wt part of glacial acetic acid as a pH neutralizing agent, 0.01 - 0.2 wt part of sucrose fatty acid ester and diacetylated monoglyceride as an emulsifying agent, 0.01 - 0.1 wt part of colloidal silica as a viscosity stabilizing agent, and 0.01 - 0.1 wt part of glycerin, PEG 4000 and/or propylene glycol as a plasticizing agent to the resulting admixture; and iv) allowing obtained product to stand and to be equilibrated with adjustment of its viscosity, and forming and drying a cellulose capsule.
A system comprising: a control circuit (control circuit, LM5170); a DC-DC converter configured to convert a voltage between a first power supply and a second power supply , comprising: a first port configured to be connected to the first power supply ; a second port configured to be connected to the second power supply ; converting means (Unit 1, Unit 2) connected between the first and second ports; a first capacitor (C1) connected between the first port and ground, said ground being configured to be connected to a negative pin of the first power supply and a negative pin of the second power supply ; a second capacitor (C2) connected between the second port and ground; and a security device (Security MOSFET) connected to the control circuit (control circuit, LM5170) and the first port and configured to be connected to the first power supply ; characterized in that the system further comprises: an apparatus connected to the security device (Security MOSFET) and the control circuit (control circuit, LM5170) and configured to supply a differential voltage, said apparatus comprising: an auxiliary power supply generating means , which is configured to be connected to the first power supply , and configured to generate an auxiliary power supply (12V/P14V); a voltage supplying means configured to receive the second power supply and the auxiliary power supply (12V/P14V), and output one of the auxiliary power supply (12V/P14V) and the second power supply ; and an output means configured to supply the output from the voltage supplying means and the first power supply as the differential voltage to the control circuit (control circuit, LM5170) to control the DC-DC converter, in order to ensure a circuit-breaker function (circuit breaker, BRKS, BRKG) of the security device (Security MOSFET), and to provide for a pre-charge of the first capacitor (C1), and the second capacitor (C2).
A method performed by a base station , BS, in a wireless communication system, the method comprising the steps of: repeatedly transmitting first reference signals using transmission beams with a first beamwidth; receiving , from a terminal, first feedback information for indicating one of the first reference signals; determining a direction range in which second reference signals are to be transmitted and beam pattern information of the second reference signals, based on at least one of the first reference signals, wherein the beam pattern information includes at least one index for the at least one of the first reference signals; transmitting , to the terminal, the beam pattern information of the second reference signals; repeatedly transmitting using transmission beams with a second beamwidth , to the terminal, the second reference signals within the direction range according to the beam pattern information; and receiving , from the terminal, second feedback information indicating at least one of the second reference signals, wherein the first beamwidth for the first reference signals is wider than the second beamwidth for the second reference signals. repeatedly transmitting first reference signals using transmission beams with a first beamwidth; receiving , from a terminal, first feedback information for indicating one of the first reference signals; determining a direction range in which second reference signals are to be transmitted and beam pattern information of the second reference signals, based on at least one of the first reference signals, wherein the beam pattern information includes at least one index for the at least one of the first reference signals; transmitting , to the terminal, the beam pattern information of the second reference signals; repeatedly transmitting using transmission beams with a second beamwidth , to the terminal, the second reference signals within the direction range according to the beam pattern information; and receiving , from the terminal, second feedback information indicating at least one of the second reference signals, wherein the first beamwidth for the first reference signals is wider than the second beamwidth for the second reference signals.
Mobile warehousing apparatus for storing and retrieving goods in a high-bay warehouse , wherein the warehousing apparatus has one or more electrically operated components to which electrical energy is supplied by a power supply device of the warehousing apparatus, wherein the power supply device has at least two different electrical energy sources, independent of one another, in the form of at least a first energy source and a second energy source, wherein the first energy source is a chargeable electrical energy storage device , carried along with the warehousing apparatus , and the second energy source is a connecting device for connecting the warehousing apparatus , at least for a time, to an external electrical energy supply device , in order to feed electrical energy to the warehousing apparatus from the external electrical energy supply device , characterized in that the warehousing apparatus has an energy supply management, which is designed to supply electrically operated components of the warehousing apparatus with electrical energy completely or predominantly from either the first energy source or the second energy source, dependent on at least one operating state of the warehousing apparatus , wherein the at least one operating state of the warehousing apparatus is or comprises at least a direction of movement of the warehousing apparatus when it is moving along.
Bending method for bending wire sections for a wave winding mat for forming a coil winding of a component of an electrical machine, comprising: a) providing a wire group of adjacent spaced parallel wires (24, 24a-24f); b) bending a meander shape on at least one first wire of the wire group such that simultaneously the at least one first wire crosses at least one second wire of the wire group ; and c) bending the meander shape on the at least one second wire of the wire group such that simultaneously the at least one second wire crosses the at least one first wire , characterized in that step b) and/or step c) includes the step of: moving a first and a second holder towards each other for holding a wire section in a direction of movement directed substantially parallel to the longitudinal direction of the wire group , and simultaneously pivoting the first holder about a first pivot axis and the at least one second holder about a second pivot axis , the pivot axes being directed substantially perpendicular to the extension of the wire group . a) providing a wire group of adjacent spaced parallel wires (24, 24a-24f); b) bending a meander shape on at least one first wire of the wire group such that simultaneously the at least one first wire crosses at least one second wire of the wire group ; and c) bending the meander shape on the at least one second wire of the wire group such that simultaneously the at least one second wire crosses the at least one first wire , characterized in that step b) and/or step c) includes the step of: moving a first and a second holder towards each other for holding a wire section in a direction of movement directed substantially parallel to the longitudinal direction of the wire group , and simultaneously pivoting the first holder about a first pivot axis and the at least one second holder about a second pivot axis , the pivot axes being directed substantially perpendicular to the extension of the wire group .
A process for producing a peroxycarboxylic acid comprising: (a) providing a set of reaction components comprising: a substrate, wherein the substrate is α-D-glucose pentaacetate; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 12, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 299 of SEQ ID NO: 12 is not glutamic acid; (b) combining the set of reaction components under suitable reaction conditions whereby peroxycarboxylic acid is produced; and (c) optionally diluting the peroxycarboxylic acid produced in step (b). (a) providing a set of reaction components comprising: a substrate, wherein the substrate is α-D-glucose pentaacetate; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 12, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 299 of SEQ ID NO: 12 is not glutamic acid; a substrate, wherein the substrate is α-D-glucose pentaacetate; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 12, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 299 of SEQ ID NO: 12 is not glutamic acid; (b) combining the set of reaction components under suitable reaction conditions whereby peroxycarboxylic acid is produced; and (c) optionally diluting the peroxycarboxylic acid produced in step (b).