mhurhangee/ep-ind-claims huggingface dataset:
A stabilizer comprising: a base to be fixed on a motion reduction target; a gimbal supported by the base to be rotatable around a first axis; a damper mechanism disposed to damp a relative rotary motion of the gimbal to the base; a flywheel configuring a part of the gimbal and disposed to be rotatable around a second axis orthogonal to the first axis; and a motor configured to rotate the flywheel, wherein the damper mechanism is a passive-type damper mechanism and comprises: a housing; a first liquid chamber disposed in the housing; a second liquid chamber disposed in the housing; a partition member disposed between the first liquid chamber and the second liquid chamber to be relatively rotatable to the housing; a passage connecting the first liquid chamber and the second liquid chamber; and an orifice section disposed to define a minimum cross-sectional area of the passage, characterized in that the shape of the orifice section is set such that the value of a damping coefficient of the damper mechanism increases as the angular velocity of the gimbal increases, and in at least a part of the orifice section, the passage cross-sectional area orthogonal to a longitudinal direction of the passage changes continuously along the longitudinal direction of the passage. a base to be fixed on a motion reduction target; a gimbal supported by the base to be rotatable around a first axis; a damper mechanism disposed to damp a relative rotary motion of the gimbal to the base; a flywheel configuring a part of the gimbal and disposed to be rotatable around a second axis orthogonal to the first axis; and a motor configured to rotate the flywheel, wherein the damper mechanism is a passive-type damper mechanism and comprises: a housing; a first liquid chamber disposed in the housing; a second liquid chamber disposed in the housing; a partition member disposed between the first liquid chamber and the second liquid chamber to be relatively rotatable to the housing; a passage connecting the first liquid chamber and the second liquid chamber; and an orifice section disposed to define a minimum cross-sectional area of the passage, a housing; a first liquid chamber disposed in the housing; a second liquid chamber disposed in the housing; a partition member disposed between the first liquid chamber and the second liquid chamber to be relatively rotatable to the housing; a passage connecting the first liquid chamber and the second liquid chamber; and an orifice section disposed to define a minimum cross-sectional area of the passage, characterized in that the shape of the orifice section is set such that the value of a damping coefficient of the damper mechanism increases as the angular velocity of the gimbal increases, and in at least a part of the orifice section, the passage cross-sectional area orthogonal to a longitudinal direction of the passage changes continuously along the longitudinal direction of the passage.
A resin composition comprising: a non-halogen epoxy resin; a biphenyl aralkyl phenolic resin; a maleimide compound; and an inorganic filler, wherein the non-halogen epoxy resin is selected from the group consisting of phenol phenyl aralkyl epoxy resins, phenol biphenyl aralkyl epoxy resins, and naphthol aralkyl epoxy resins. a non-halogen epoxy resin; a biphenyl aralkyl phenolic resin; a maleimide compound; and an inorganic filler, wherein the non-halogen epoxy resin is selected from the group consisting of phenol phenyl aralkyl epoxy resins, phenol biphenyl aralkyl epoxy resins, and naphthol aralkyl epoxy resins.
Process for preparing a fat-continuous emulsion, which emulsion comprises 15-70% of an aqueous phase and 30-85% of a fat phase, said fat phase comprising 1-35% midstock (weight % on total fat phase), 3-50 % hardstock (weight % on total fat phase), and 10-80% oil (weight % on total fat phase), which process comprises the steps of: a. providing a water-continuous dispersion at a temperature of between 0°C and 15°C comprising an aqueous phase as the continuous phase with dispersed therein oil and midstock fraction, wherein at least 10% by weight of said midstock fraction dispersed in the aqueous phase is crystallized; b. providing the melted hardstock fat at a temperature of between 30°C and 60°C; c. combining the water-continuous dispersion of step a. with the melted hardstock fat of step b.; d. subjecting the mixture obtained after step c. to a high shear device to provide a fat-continuous emulsion, wherein the temperature of the mixture obtained from step c. is below the melting point of the hardstock fat. a. providing a water-continuous dispersion at a temperature of between 0°C and 15°C comprising an aqueous phase as the continuous phase with dispersed therein oil and midstock fraction, wherein at least 10% by weight of said midstock fraction dispersed in the aqueous phase is crystallized; b. providing the melted hardstock fat at a temperature of between 30°C and 60°C; c. combining the water-continuous dispersion of step a. with the melted hardstock fat of step b.; d. subjecting the mixture obtained after step c. to a high shear device to provide a fat-continuous emulsion,
A combination vaporizer, comprising: a first vaporizer element comprising a first body having an upper end and a lower end, the first body having a cavity in the upper end for receiving a cartridge (18, 24), a first air inlet (15, 19), and a first vapor outlet, a first cartridge (18, 24) disposed in the cavity, the first cartridge containing a first product and a first atomizer for atomizing the first product, and a battery secured in the first body; a second vaporizer element comprising a second body containing a heating element, a second air inlet, a second vapor outlet (46, 56), and a second product, the second body having a recess complementary to a shape of the lower end of the first body thereby allowing the lower end of the first vaporizer element to be inserted into the recess; a controller in electrical communication with the first cartridge (18, 24) and the second vaporizer element, the controller configured to control an amount of vapor produced by the first cartridge (18, 24) and the second body; a first fluid path passing from the second vapor outlet through the first air inlet to the first cartridge for combining vapor from the second vaporizer element with the vapor produced by the first cartridge; and a second fluid path passing from the first cartridge to the first vapor outlet. a first vaporizer element comprising a first body having an upper end and a lower end, the first body having a cavity in the upper end for receiving a cartridge (18, 24), a first air inlet (15, 19), and a first vapor outlet, a first cartridge (18, 24) disposed in the cavity, the first cartridge containing a first product and a first atomizer for atomizing the first product, and a battery secured in the first body; a second vaporizer element comprising a second body containing a heating element, a second air inlet, a second vapor outlet (46, 56), and a second product, the second body having a recess complementary to a shape of the lower end of the first body thereby allowing the lower end of the first vaporizer element to be inserted into the recess; a controller in electrical communication with the first cartridge (18, 24) and the second vaporizer element, the controller configured to control an amount of vapor produced by the first cartridge (18, 24) and the second body; a first fluid path passing from the second vapor outlet through the first air inlet to the first cartridge for combining vapor from the second vaporizer element with the vapor produced by the first cartridge; and a second fluid path passing from the first cartridge to the first vapor outlet.
Support assembly for a trailer coupling (451; 551; 951) or a load carrier, including a cross-member and side members joined to the cross-member for fitting to a rear section of a body of a motor vehicle, together with at least one mounting fitted to the cross-member for a trailer coupling (451; 551; 951) or for a coupling part of a load carrier, wherein the support assembly includes a base body made from a sheet metal blank by forming and comprising the cross-member, wherein the base body includes, in addition to the cross-member, at least one side member formed by the body of the sheet metal blank and/or a housing (450; 950) of the mounting for the trailer coupling (451; 551; 951) or the load carrier formed integrally by the body of the sheet metal blank, characterised in that the base body has at least one reinforcing conversion, namely a reinforcing beading.
A silicon carbide based porous material containing a metal silicide which is NiSi 2 or ZrSi 2 in an amount of 1 to 30% by mass and having a porosity of 38 to 80%, characterized in that the silicon carbide based porous material contains both α-SiC and β-SiC, wherein the proportion of the β-SiC to the total of the α-SiC and the β -SiC is at least 5% by mass.
A monoclonal antibody or antigen-binding fragment thereof that binds to human GITR comprising: a humanized light chain variable domain comprising the amino acid sequence set forth in SEQ ID NO: 105; and a humanized heavy chain variable domain comprising the amino acid sequence set forth in SEQ ID NO: 104. a humanized light chain variable domain comprising the amino acid sequence set forth in SEQ ID NO: 105; and a humanized heavy chain variable domain comprising the amino acid sequence set forth in SEQ ID NO: 104.
A computer-implemented method of generating a tissue map that differentiates between adipose tissue and scar tissue from an electrophysiology map including a plurality of electrophysiology data points, each electrophysiology data point including an electrophysiological signal and one or more dielectric properties associated with a tissue location, the method comprising: for each electrophysiology data point of the plurality of electrophysiology data points, computing: an adipose tissue probability for the tissue location as a first function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location, and a scar tissue probability for the tissue location as a second function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location; wherein the first function utilizes a first set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, and wherein the second function utilizes a second set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, generating one or more of an adipose tissue probability map and a scar tissue probability map. for each electrophysiology data point of the plurality of electrophysiology data points, computing: an adipose tissue probability for the tissue location as a first function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location, and a scar tissue probability for the tissue location as a second function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location; an adipose tissue probability for the tissue location as a first function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location, and a scar tissue probability for the tissue location as a second function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location; wherein the first function utilizes a first set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, and wherein the second function utilizes a second set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, generating one or more of an adipose tissue probability map and a scar tissue probability map.
Method for preparing tissue material in a device comprising a liquid container and a carrier for carrying in the liquid container at least one assembly of a mould and an enclosing element coupled thereto, the method comprising the steps of: A) providing at least one assembly of a mould and an enclosing element, wherein the mould comprises a housing provided with a receiving space for the tissue material and an opening for placing the tissue material into the receiving space, and coupling means (2c, 2d) for coupling the enclosing element to the mould, the enclosing element being adapted for enclosing the tissue material liquid-permeably in the receiving space; B) placing a quantity of tissue material in the receiving space of the mould; C) liquid-permeably enclosing the quantity of tissue material placed in the receiving space by moving the enclosing element into a closing position, wherein displacement of tissue material placed in the receiving space through the opening and outside the receiving space is prevented; D) guiding the tissue material placed in the receiving space at least through a pre-treatment liquid such as an alcohol solution held within the liquid container of the device, wherein water is extracted from the tissue material; and E) embedding the tissue material placed in the receiving space by at least partially filling the receiving space with a matrix material; wherein the assembly of mould and enclosing element has an orientation relative to a reference direction, the method being characterised in that the orientation in step D) differs from the orientation in step E); and in that the device is adapted to vary the level of a liquid in the liquid container and to adjust the orientation of the carrier in the liquid container. A) providing at least one assembly of a mould and an enclosing element, wherein the mould comprises a housing provided with a receiving space for the tissue material and an opening for placing the tissue material into the receiving space, and coupling means (2c, 2d) for coupling the enclosing element to the mould, the enclosing element being adapted for enclosing the tissue material liquid-permeably in the receiving space; B) placing a quantity of tissue material in the receiving space of the mould; C) liquid-permeably enclosing the quantity of tissue material placed in the receiving space by moving the enclosing element into a closing position, wherein displacement of tissue material placed in the receiving space through the opening and outside the receiving space is prevented; D) guiding the tissue material placed in the receiving space at least through a pre-treatment liquid such as an alcohol solution held within the liquid container of the device, wherein water is extracted from the tissue material; and E) embedding the tissue material placed in the receiving space by at least partially filling the receiving space with a matrix material;
A communication transmitter for transmitting a control message over a physical downlink control channel towards a communication entity in a mobile communication network, the communication transmitter comprising: a processor which is configured to process a control block to obtain the control message, the control block having a first portion and a second portion, the first portion comprising downlink control information bits indicating information relating to data transmission over the mobile communication network, wherein the processor is configured to insert prefix error detection code bits into the second portion of the control block to obtain the control message, wherein the processor is configured to replace digital bits of the second portion by the prefix error detection code bits in order to reliably indicate the length of the first portion; and a communication interface being configured to transmit the control message over the mobile communication network. a processor which is configured to process a control block to obtain the control message, the control block having a first portion and a second portion, the first portion comprising downlink control information bits indicating information relating to data transmission over the mobile communication network, wherein the processor is configured to insert prefix error detection code bits into the second portion of the control block to obtain the control message, wherein the processor is configured to replace digital bits of the second portion by the prefix error detection code bits in order to reliably indicate the length of the first portion; and a communication interface being configured to transmit the control message over the mobile communication network.
A method for evaluating an individual hearing benefit of a hearing device feature, comprising: a) providing at least one first hearing device feature in a hearing device; b) providing at least one second hearing device feature in the hearing device; c) classifying a current hearing situation, the current hearing situation being associated with a current acoustic environment; d) selecting the at least one second hearing device feature; e) applying the selected at least one second hearing device feature for processing an audio signal; f) providing the processed audio signal to an output transducer of the hearing device; g) indicating to the user that the at least one second hearing device feature is currently being applied; and h) providing control means for the user to switch off and on an effect of the at least one second hearing device feature, characterized in that - said classifying the current hearing situation is performed automatically by the hearing device, - said selecting the at least one second hearing device feature is performed automatically dependent on the classified hearing situation and is performed by the hearing device, and in that - the method further comprises estimating a hearing benefit provided by the at least one second hearing device feature in the current hearing situation and performing said indicating of step g) only under the condition that the estimated hearing benefit is above a certain pre-determined threshold. a) providing at least one first hearing device feature in a hearing device; b) providing at least one second hearing device feature in the hearing device; c) classifying a current hearing situation, the current hearing situation being associated with a current acoustic environment; d) selecting the at least one second hearing device feature; e) applying the selected at least one second hearing device feature for processing an audio signal; f) providing the processed audio signal to an output transducer of the hearing device; g) indicating to the user that the at least one second hearing device feature is currently being applied; and h) providing control means for the user to switch off and on an effect of the at least one second hearing device feature, - said classifying the current hearing situation is performed automatically by the hearing device, - said selecting the at least one second hearing device feature is performed automatically dependent on the classified hearing situation and is performed by the hearing device, and in that - the method further comprises estimating a hearing benefit provided by the at least one second hearing device feature in the current hearing situation and performing said indicating of step g) only under the condition that the estimated hearing benefit is above a certain pre-determined threshold.
A compression apparatus comprising: a device having an internal cavity into which a vehicle air-bag may be placed; a compression arrangement operable to reduce the volume of the cavity, wherein the compression arrangement is configured to reduce the volume of the cavity in more than one stage, with the reduction in volume being halted between stages; a selectively openable valve having a closed position, in which the cavity is sealed in a gas-tight or substantially gas-tight manner, and an open position, in which a gas flow path is opened, allowing communication between the cavity and a further region; and a valve control arrangement operable to place the valve in the closed position during an initial compression, and operable to place the valve in the open position when the temperature and/or pressure within the cavity reaches a predetermined level. a device having an internal cavity into which a vehicle air-bag may be placed; a compression arrangement operable to reduce the volume of the cavity, wherein the compression arrangement is configured to reduce the volume of the cavity in more than one stage, with the reduction in volume being halted between stages; a selectively openable valve having a closed position, in which the cavity is sealed in a gas-tight or substantially gas-tight manner, and an open position, in which a gas flow path is opened, allowing communication between the cavity and a further region; and a valve control arrangement operable to place the valve in the closed position during an initial compression, and operable to place the valve in the open position when the temperature and/or pressure within the cavity reaches a predetermined level.
A non-transgenic domesticated L. esculentum plant growing fruits with a content of flavonols in the flesh of the fruit that is greater than 0.5 μg/mg dwt and a content of flavonols in the peel of said fruit of at least 5 μg/mg dwt due to up-regulated flavonol biosynthesis in the fruit flesh of said plant and restored CHI expression in the fruit peel of said plant, wherein said non-transgenic domesticated L. esculentum plant is obtainable by introgressing the CHI gene and the the flavonol biosynthesis pathway genes CHS, FSH and FLS of Lycopersicon wild accessions LA1963, LA2884 and LA1926 into a domesticated L. esculentum plant.