mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a high protein, acidified dairy product comprising the steps of a) providing a liquid composition having a pH in the range of 5.5-8.0, which comprises - a total amount of protein in the range of 8-15% w/w, - a total amount of micellar casein in the range of 60-80% w/w based on total protein - a total amount of insoluble particles of denatured whey protein in the range of 5-18% w/w total protein - a total amount of non-denatured beta-lactoglobulin in the range of 1-15% w/w total protein, wherein the liquid composition has a volume weighted mean particle diameter, D[4,3], of at most 50 micron when measured according to Example 1.1, and b) heating the liquid composition of step a) to a temperature of at least 70 degrees C for a duration of time sufficient to obtain at least partial microbial reduction, c) subjecting the heat-treated, liquid composition of step b) to at least one acidification step using an acidifying agent, thereby obtaining an acidified dairy composition, d) optionally, smoothening the acidified dairy composition, and e) optionally, packaging the acidified dairy product comprising, or even consisting of, the acidified dairy composition of step c) or step d). a) providing a liquid composition having a pH in the range of 5.5-8.0, which comprises - a total amount of protein in the range of 8-15% w/w, - a total amount of micellar casein in the range of 60-80% w/w based on total protein - a total amount of insoluble particles of denatured whey protein in the range of 5-18% w/w total protein - a total amount of non-denatured beta-lactoglobulin in the range of 1-15% w/w total protein, wherein the liquid composition has a volume weighted mean particle diameter, D[4,3], of at most 50 micron when measured according to Example 1.1, and - a total amount of protein in the range of 8-15% w/w, - a total amount of micellar casein in the range of 60-80% w/w based on total protein - a total amount of insoluble particles of denatured whey protein in the range of 5-18% w/w total protein - a total amount of non-denatured beta-lactoglobulin in the range of 1-15% w/w total protein, b) heating the liquid composition of step a) to a temperature of at least 70 degrees C for a duration of time sufficient to obtain at least partial microbial reduction, c) subjecting the heat-treated, liquid composition of step b) to at least one acidification step using an acidifying agent, thereby obtaining an acidified dairy composition, d) optionally, smoothening the acidified dairy composition, and e) optionally, packaging the acidified dairy product comprising, or even consisting of, the acidified dairy composition of step c) or step d).
Method for determining a volume (V s) of a settled bed in a mixture in a loading space of a machine, wherein the mixture consists of a settled bed and a mixture soup which is located above the settled bed, and wherein the method comprises: a) determining a mixture height (h h) of the mixture in the loading space, and determining a mixture volume (V h) of the mixture in the loading space on the basis of the mixture height (h h), b) determining the mass (m) of the mixture in the loading space, characterized in that the method furthermore comprises: c) determining a density of the settled mixture (ρ s), d) determining a density of the mixture soup (ρ mi), and e) determining the volume (V s) of the settled bed on the basis of the determined mixture volume (V h), the mass (m) of the mixture, the density of the settled mixture (ρ s), and the determined density of the mixture soup (ρ mi) using the formula V s = (m - V h ρ mi) / (ρ s - ρ mi). a) determining a mixture height (h h) of the mixture in the loading space, and determining a mixture volume (V h) of the mixture in the loading space on the basis of the mixture height (h h), b) determining the mass (m) of the mixture in the loading space, c) determining a density of the settled mixture (ρ s), d) determining a density of the mixture soup (ρ mi), and e) determining the volume (V s) of the settled bed on the basis of the determined mixture volume (V h), the mass (m) of the mixture, the density of the settled mixture (ρ s), and the determined density of the mixture soup (ρ mi) using the formula V s = (m - V h ρ mi) / (ρ s - ρ mi).
A non-aqueous electrolyte for lithium ion battery, comprising a non-aqueous organic solvent, a lithium salt; characterized in that: the non-aqueous electrolyte for lithium ion battery further comprises a compound A represented by formula I and a compound B represented by formula II, in formula I, R 0 is C2-C4 alkylene or alkenylene, or C2-C4 fluoroalkylene or fluoroalkenylene; in formula II, R 1, R 2, R 3, R 4, R 5 and R 6 are each independently selected from one of hydrogen atom, fluorine atom and C1-C5 hydrocarbon group; wherein the percentage mass content of the compound A is 0.1-3% based on the total mass of the non-aqueous electrolyte for lithium ion battery being 100%; wherein the percentage mass content of the compound B is 0.1-5% based on the total mass of the non-aqueous electrolyte for lithium ion battery being 100%. the non-aqueous electrolyte for lithium ion battery further comprises a compound A represented by formula I and a compound B represented by formula II, in formula I, R 0 is C2-C4 alkylene or alkenylene, or C2-C4 fluoroalkylene or fluoroalkenylene; in formula II, R 1, R 2, R 3, R 4, R 5 and R 6 are each independently selected from one of hydrogen atom, fluorine atom and C1-C5 hydrocarbon group; wherein the percentage mass content of the compound A is 0.1-3% based on the total mass of the non-aqueous electrolyte for lithium ion battery being 100%; wherein the percentage mass content of the compound B is 0.1-5% based on the total mass of the non-aqueous electrolyte for lithium ion battery being 100%.
A fumes suction and/or filtering hood, in particular for a household kitchen unit, comprising: - an internally hollow chimney; - a fumes inlet section in said chimney; - a motorized fan housed in said chimney on the side opposite to said inlet section; - a suction volume arranged inside said chimney laterally with respect to said motorized fan; - a soundproofing structure housed in said chimney so as to define at least one duct which allows the fumes to flow from said inlet section to said suction volume, said inlet section, suction volume and soundproofing structure being symmetrical relative to a common plane of symmetry, characterised in that: i) considering any point of the inlet section and any point of the suction volume located on the same side with respect to said plane of symmetry, a straight line joining such points intersects said soundproofing structure and ii) said at least one duct is so designed that it is substantially "X" shaped. - an internally hollow chimney; - a fumes inlet section in said chimney; - a motorized fan housed in said chimney on the side opposite to said inlet section; - a suction volume arranged inside said chimney laterally with respect to said motorized fan; - a soundproofing structure housed in said chimney so as to define at least one duct which allows the fumes to flow from said inlet section to said suction volume, i) considering any point of the inlet section and any point of the suction volume located on the same side with respect to said plane of symmetry, a straight line joining such points intersects said soundproofing structure and ii) said at least one duct is so designed that it is substantially "X" shaped.
A method for purifying a halogenated unsaturated carbon compound having 2 or 3 carbon atoms, wherein the method comprises: introducing a mixture comprising a plurality of halogenated unsaturated carbon compounds that each have 2 or 3 carbon atoms and are different from each other into a porous coordination polymer represented by a composition formula [Cr 3 O (bdc) 3] where bdc is 1,4-benzenedicarboxylate or [Zr 6 O 4 4 (bpdc) 6] where bpdc is 4,4'-biphenyldicarboxylate; selectively adsorbing any one of the plurality of halogenated unsaturated carbon compounds to the porous coordination polymer; and taking out the other halogenated unsaturated carbon compound. selectively adsorbing any one of the plurality of halogenated unsaturated carbon compounds to the porous coordination polymer; and taking out the other halogenated unsaturated carbon compound.
An integrated circuit system comprising: a quartz substrate; a first integrated circuit die attached to the quartz substrate and having a first integrated circuit formed thereon, the first integrated circuit having a first voltage associated therewith; a second integrated circuit die attached to the quartz substrate and having a second integrated circuit formed thereon, the second integrated circuit having a second voltage associated therewith, the second voltage being less than the first voltage; and a transformer system formed on the quartz substrate and electrically connected between the first integrated circuit and the second integrated circuit to provide galvanic isolation therebetween. a quartz substrate; a first integrated circuit die attached to the quartz substrate and having a first integrated circuit formed thereon, the first integrated circuit having a first voltage associated therewith; a second integrated circuit die attached to the quartz substrate and having a second integrated circuit formed thereon, the second integrated circuit having a second voltage associated therewith, the second voltage being less than the first voltage; and a transformer system formed on the quartz substrate and electrically connected between the first integrated circuit and the second integrated circuit to provide galvanic isolation therebetween.
Apparatus for heating preforms with microwaves having at least a microwave generator, a microwave conductor and a resonator, characterized in that a receiving unit is provided for the stepwise successive heating of areas of the preforms to be heated, wherein the resonator is substantially annular, and has an opening through which a preform can be guided, wherein stepwise means that the area of the preforms to be heated is heated in terms of time successively step by step, wherein the preform is divided into several subareas, which can be heated consecutively.
A LED circuit, comprising a LED module and a driver circuit for feeding the LED module, the driver circuit having a pair of input terminals forming a line input terminal and a neutral input terminal, respectively, and a pair of output terminals forming input terminals of the LED module including a substrate, a heat sink and a multiple number of LED elements connected in series, characterised in that the LED elements are provided with a corresponding heat pad that is capacitively coupled to the heat sink and to the anode and cathode of the LED elements, wherein the LED circuit comprises a shunt circuit by-passing the capacitive coupling between the anode and cathode of the LED elements on the one hand, and the corresponding heat pad on the other hand, and wherein the shunt circuit has a low impedance for transient signals.
A system for evaluating a vessel system of a patient, the system comprising a processing system configured to: obtain image data for the vessel system of the patient; analyze the obtained image data to identify a vessel name of a vessel from the vessel system by a computer aided detection algorithm; obtain physiological measurements for the vessel of the patient; co-register the obtained physiological measurements with the obtained image data such that the physiological measurements are associated with corresponding portions of the vessel of the patient; analyze the co-registered physiology measurements to determine a pressure drop along a length of the vessel; determine a classification (810,820,830) of a lesion within the vessel of the patient by comparing the results of the analysis of the co-registered physiology measurements to a classification index containing lesions classifications, wherein the classification relies on the physiology measurements and on lesion length measurements; and output to a user interface (500,182), the vessel with the vessel name in proximity to the vessel and the classification (810,820,830) of the lesion. obtain image data for the vessel system of the patient; analyze the obtained image data to identify a vessel name of a vessel from the vessel system by a computer aided detection algorithm; obtain physiological measurements for the vessel of the patient; co-register the obtained physiological measurements with the obtained image data such that the physiological measurements are associated with corresponding portions of the vessel of the patient; analyze the co-registered physiology measurements to determine a pressure drop along a length of the vessel; determine a classification (810,820,830) of a lesion within the vessel of the patient by comparing the results of the analysis of the co-registered physiology measurements to a classification index containing lesions classifications, wherein the classification relies on the physiology measurements and on lesion length measurements; and output to a user interface (500,182), the vessel with the vessel name in proximity to the vessel and the classification (810,820,830) of the lesion.
An image pickup apparatus comprising: a lens unit; a cover configured to protect the lens unit; and an annular light-shielding member configured to be provided between the lens unit and the cover in a state of being in close contact with the cover and to shield reflected light of illumination light emitted from an illumination unit so as to prevent the illumination light being reflected by the cover from entering the lens unit, characterized in that the annular light-shielding member has a circulation path that connects the inner peripheral side of the annular light-shielding member and the outer peripheral side of the annular light-shielding member with each other for enabling circulation of air inside the image pickup apparatus. a lens unit; a cover configured to protect the lens unit; and an annular light-shielding member configured to be provided between the lens unit and the cover in a state of being in close contact with the cover and to shield reflected light of illumination light emitted from an illumination unit so as to prevent the illumination light being reflected by the cover from entering the lens unit, characterized in that the annular light-shielding member has a circulation path that connects the inner peripheral side of the annular light-shielding member and the outer peripheral side of the annular light-shielding member with each other for enabling circulation of air inside the image pickup apparatus.
A password management and authentication method, suitable for an electronic device with a trusted platform module, the password management and authentication method being characterized by comprising the steps of: detecting an authentication device connected to the electronic device through wireless electrical connection; reading a hardware identification code of the authentication device; generating an authentication code according to the hardware identification code and a user password set up by a user; and storing the authentication code into the authentication device or the electronic device so that the authentication device becomes an electronic key; wherein, when the authentication device is reconnected to the electronic device, detecting whether the TPM of the electronic device is turned on, if the TPM is turned on, detecting whether an authentication device is connected to the electronic device, followed by automatically authenticating an authentication code in the authentication device to the electronic device, and if the authentication code is correct, automatically decrypting a data folder or a hard disk encrypted by the TPM so that the data folder or the HD can be used by the user, wherein, when the authentication device is reconnected to the electronic device, detecting whether the electronic device is resumed from a suspended state to a normal state, if the electronic device is resumed from the suspended state, re-executing the step of automatically authenticating the authentication code, if the electronic device is in the normal state, automatically decrypting the data folder or the hard disk encrypted by the electronic device so as to be used by the user. detecting an authentication device connected to the electronic device through wireless electrical connection; reading a hardware identification code of the authentication device; generating an authentication code according to the hardware identification code and a user password set up by a user; and storing the authentication code into the authentication device or the electronic device so that the authentication device becomes an electronic key; wherein, when the authentication device is reconnected to the electronic device, detecting whether the TPM of the electronic device is turned on, if the TPM is turned on, detecting whether an authentication device is connected to the electronic device, followed by automatically authenticating an authentication code in the authentication device to the electronic device, and if the authentication code is correct, automatically decrypting a data folder or a hard disk encrypted by the TPM so that the data folder or the HD can be used by the user, wherein, when the authentication device is reconnected to the electronic device, detecting whether the electronic device is resumed from a suspended state to a normal state, if the electronic device is resumed from the suspended state, re-executing the step of automatically authenticating the authentication code, if the electronic device is in the normal state, automatically decrypting the data folder or the hard disk encrypted by the electronic device so as to be used by the user.
A method for enabling phase tracking, comprising: generating, on a communication device, a plurality of pilot symbols, wherein the pilot symbols conform to a rank-deficient pilot mapping matrix, wherein in the rank-deficient pilot mapping matrix each row corresponds to pilot symbols transmitted on a different spatial stream and each column corresponds to pilot symbols transmitted on different Orthogonal Frequency-Division Multiplexing,OFDM, symbols and wherein the rank-deficient pilot mapping matrix comprises at least one pair of columns of identical pilot symbols; and transmitting the plurality of pilot symbols. generating, on a communication device, a plurality of pilot symbols, wherein the pilot symbols conform to a rank-deficient pilot mapping matrix, wherein in the rank-deficient pilot mapping matrix each row corresponds to pilot symbols transmitted on a different spatial stream and each column corresponds to pilot symbols transmitted on different Orthogonal Frequency-Division Multiplexing,OFDM, symbols and wherein the rank-deficient pilot mapping matrix comprises at least one pair of columns of identical pilot symbols; and transmitting the plurality of pilot symbols.
A miniaturized multiprotocol audio/voice internet-of-things device, MAVID, comprising: a small form factor package housing a voice digital signal processor, VDSP, at least one wireless communication module (122, 124, 126, 128, 129), and a multipoint control unit, MCU, coupled to said VDSP and said at least one wireless communication module; said VDSP being coupled to at least one microphone; said MCU being configured to communicate with at least one speaker external to said MAVID; said at least one wireless communication module being coupled to at least one antenna (114a, 114b, 114c, 114d); said MCU being configured to initiate a wireless call in response to a command from a first user; said MCU being configured to carry out said wireless call between said first user and a second user; said MCU being configured to perform an in-call interaction in response to a voice command from either said first user or said second user, while carrying out said wireless call; wherein said in-call interaction comprises execution of a request received by said MCU from either said first user or said second user; wherein execution of said request comprises controlling, while carrying out the wireless call, a first consumer electronic device (368, 468, 568, 668) associated to the first user in response to a voice command relayed by the wireless call from the second user. a small form factor package housing a voice digital signal processor, VDSP, at least one wireless communication module (122, 124, 126, 128, 129), and a multipoint control unit, MCU, coupled to said VDSP and said at least one wireless communication module; said VDSP being coupled to at least one microphone; said MCU being configured to communicate with at least one speaker external to said MAVID; said at least one wireless communication module being coupled to at least one antenna (114a, 114b, 114c, 114d); said MCU being configured to initiate a wireless call in response to a command from a first user; said MCU being configured to carry out said wireless call between said first user and a second user; said MCU being configured to perform an in-call interaction in response to a voice command from either said first user or said second user, while carrying out said wireless call; wherein said in-call interaction comprises execution of a request received by said MCU from either said first user or said second user; wherein execution of said request comprises controlling, while carrying out the wireless call, a first consumer electronic device (368, 468, 568, 668) associated to the first user in response to a voice command relayed by the wireless call from the second user.
An article of footwear comprising: an upper and a sole structure secured to the upper to define an interior cavity; the sole structure comprising a base portion and a sidewall that surrounds a substantial perimeter of the base portion; and a pronation feedback system including a support structure extending from the sidewall and along the upper at a medial side of the sole structure; wherein the support structure is configured to provide proprioceptive feedback corresponding with a rate of pronation of a foot disposed in the interior cavity; wherein the support structure comprises a set of elongated members and wherein at least some of the elongated members are spaced apart from and not in contact with one another, and wherein the support structure extends only in a midfoot region of the sole structure. an upper and a sole structure secured to the upper to define an interior cavity; the sole structure comprising a base portion and a sidewall that surrounds a substantial perimeter of the base portion; and a pronation feedback system including a support structure extending from the sidewall and along the upper at a medial side of the sole structure; wherein the support structure is configured to provide proprioceptive feedback corresponding with a rate of pronation of a foot disposed in the interior cavity; wherein the support structure comprises a set of elongated members and wherein at least some of the elongated members are spaced apart from and not in contact with one another, and wherein the support structure extends only in a midfoot region of the sole structure.
A gas stove oven burner (10, 12) comprising a venturi, and formed by a casing manufactured by forming at least one metal plate, the burner (10, 12) comprises two internal flanges, inside the burner (10, 12), located downstream from the venturi, inclined from an internal flow of fluid and diametrically opposite from each other, being each one of them inclined in one direction, characterized in that said flanges penetrate toward the center of the transversal section of the burner (10, 12), so that their ends are in contact and two inclined walls are provided in the fluid's trajectory, leaving no space for a linear trajectory to take place