mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a parameter of a material, the method comprising: directing, using a radio frequency source, RF energy into a region of interest, the region of interest comprising the material, a known reference, and a boundary between the material and the known reference; detecting, using an acoustic receiver, at least one thermoacoustic multi-polar signal (200, 205 and 210) generated in response to the RF energy, wherein the at least one thermoacoustic multi-polar signal are acoustic pressure waves; and determining, by one or more processors, a parameter of the material as a function of the at least one thermoacoustic multi-polar signal and a transmitted power correction factor, wherein the transmitted power correction factor is based on an estimated thickness of the known reference and an attenuation coefficient of the known reference, further wherein the parameter of the material is selected from the group consisting of Grüneisen parameter and conductivity. directing, using a radio frequency source, RF energy into a region of interest, the region of interest comprising the material, a known reference, and a boundary between the material and the known reference; detecting, using an acoustic receiver, at least one thermoacoustic multi-polar signal (200, 205 and 210) generated in response to the RF energy, wherein the at least one thermoacoustic multi-polar signal are acoustic pressure waves; and determining, by one or more processors, a parameter of the material as a function of the at least one thermoacoustic multi-polar signal and a transmitted power correction factor, wherein the transmitted power correction factor is based on an estimated thickness of the known reference and an attenuation coefficient of the known reference, further wherein the parameter of the material is selected from the group consisting of Grüneisen parameter and conductivity.
Clamping device with a fixed clamping jaw, a movable clamping jaw and a drive for adjustment of the movable clamping jaw in relation to the fixed clamping jaw, wherein the drive comprises a threaded spindle and a boosting mechanism for boosting the clamping force, characterised in that the threaded spindle is embodied as a telescopic spindle and the boosting mechanism is designed to exert a traction force on the movable clamping jaw.
A method for optimizing response time of a latch in a cylinder deactivation rocker arm assembly, the latch moving between an engaged position with an inner arm of the rocker arm assembly and a retracted position, the method comprising: determining a major outer diameter of the latch; determining an installed length of a spring biasing the latch; determining a clearance between L1 and a major inner diameter of an outer arm of the rocker arm assembly; determining a radial clearance between a cage coupled to the outer arm and a major inner diameter of the latch; determining a minor diameter of the latch; establishing a relationship between the response time of the latch and, L1, L2, L3, L4 and L5, wherein at least one of the L1, L2, L3, L4 and L5 impacts the response time more than a remainder of the L1, L2, L3, L4 and L5; and selecting components of the cylinder deactivation rocker arm assembly based on the relationship. determining a major outer diameter of the latch; determining an installed length of a spring biasing the latch; determining a clearance between L1 and a major inner diameter of an outer arm of the rocker arm assembly; determining a radial clearance between a cage coupled to the outer arm and a major inner diameter of the latch; determining a minor diameter of the latch; establishing a relationship between the response time of the latch and, L1, L2, L3, L4 and L5, wherein at least one of the L1, L2, L3, L4 and L5 impacts the response time more than a remainder of the L1, L2, L3, L4 and L5; and selecting components of the cylinder deactivation rocker arm assembly based on the relationship.
1-deoxygalactonojirimycin or a salt thereof for use in the treatment of Fabry disease in a human patient in need thereof, wherein the patient has an α-galactosidase A mutation selected from the group consisting of G328A, T41I, M51K, A97V, R112H, A143T, P205T, Y207S, N215S, P259R, L300P, S201F and F295C.
Instrument for connecting a bone screw to a spinal column rod, wherein the instrument comprises a substantially cylindrical and hollow housing and an adjustment tool which passes axially through the housing and which has an external thread on one portion and is screwed into an internal thread of the housing, wherein the internal thread defines a longitudinal axis of the housing, and wherein the housing is formed as a pincer having a first and a second jaw (30, 34) which form the housing and each have a proximal and a distal end (42, 44, 46, 48) relative to the user, wherein the proximal ends (42, 44) of the jaws serve for gripping the instrument by the user, and wherein the distal ends (46, 48) of the jaws (30, 34) grip on the head of the bone screw, wherein the two jaws (30, 34) are connected together pivotably and not crossing each other via a pivot axis lying between the distal and proximal ends (42, 44, 46, 48) and running orthogonally to the longitudinal axis of the housing, so that pressing together the proximal ends (42, 44) of the jaws (30, 34) causes an opening of the distal ends (46, 48) of the jaws (30, 34), characterised in that the internal thread of the housing is formed at the proximal end of a single jaw, in that the proximal end of this jaw protrudes over the proximal end of the other jaw in the direction of the longitudinal axis by a portion carrying the internal thread.
Pyrolytic gas generating device for generating synthesis gas from a carbonizable feedstock, at least comprising: - a vertically oriented shaft gasifier unit having a downwardly open gasifier shaft; - a heat generator unit for heating the gasifier shaft, and - a discharge unit which is arranged below the gasifier shaft and has at least one motor-driven conveying member in the form of a conveying screw which provides conveyance away from the gasifier shaft; wherein: - the gasifier shaft is surrounded in a subregion of the periphery of its wall by a hot air duct which is fed by the heat generator and is connected via at least one gas passage opening to the gasifier shaft, - the wall is provided in at least one further subregion with at least one gas passage opening adjoined by a synthesis gas extractor duct; - the gasifier shaft is rectangular in cross section and the gas passage openings (23, 25) for the synthesis gas extractor duct and the hot air duct are arranged on parallel opposite sides of the gasifier shaft, characterized - in that multiple gas passage openings (23, 25) are arranged one above the other and a respective louvre (23.1, 25.1) is arranged between adjacent gas passage openings (23, 25) and extends obliquely upwards from the wall; and - in that at least one rotor element (61, 63) having at least one rotor blade is arranged in the gasifier shaft in such a way that the rotor blade reaches the wall and the conveying screw. - a vertically oriented shaft gasifier unit having a downwardly open gasifier shaft; - a heat generator unit for heating the gasifier shaft, and - a discharge unit which is arranged below the gasifier shaft and has at least one motor-driven conveying member in the form of a conveying screw which provides conveyance away from the gasifier shaft; - the gasifier shaft is surrounded in a subregion of the periphery of its wall by a hot air duct which is fed by the heat generator and is connected via at least one gas passage opening to the gasifier shaft, - the wall is provided in at least one further subregion with at least one gas passage opening adjoined by a synthesis gas extractor duct; - the gasifier shaft is rectangular in cross section and the gas passage openings (23, 25) for the synthesis gas extractor duct and the hot air duct are arranged on parallel opposite sides of the gasifier shaft, characterized - in that multiple gas passage openings (23, 25) are arranged one above the other and a respective louvre (23.1, 25.1) is arranged between adjacent gas passage openings (23, 25) and extends obliquely upwards from the wall; and - in that at least one rotor element (61, 63) having at least one rotor blade is arranged in the gasifier shaft in such a way that the rotor blade reaches the wall and the conveying screw.
Cable tray section, made of longitudinal metal wires (7, 8) and transversal metal wires (9, 10) in the shape of a "U" forming a channel with a base and side walls, comprising at least one anchorage element (1, 1'); each anchorage element (1, 1') is installed between the longitudinal metal wires (7, 8), on the side walls of one end of each tray section, and welded to the last but one and last transversal metal wires of said tray section; each anchorage element consisting of a metal wire bent into two parts, with a V-shape (2, 2') at one of its ends, followed by bends (4, 4') face the outside of the tray, characterized in that bends (3, 3') face the inside of the tray, and straight sections (5, 5') that are parallel to each other, these straight sections (5, 5') protuding from the last transversal metal wire (10, 10') of the tray section in order to leave a gap (11, 11') between the side of this last transversal metal wire (10, 10') and the bend (3, 3'); said gap having a length related to the thickness of a transversal metal wire of the tray sections.
A light generating device configured to generate in a first control mode device light, wherein the light generating device comprises (i) a first source of first light, and (ii) a second source of second light, different from the first light, wherein the second light comprises cyan-like light having a wavelength selected from the range of 470-520 nm, wherein the device light comprises the first light and the second light, and wherein in the first control mode the device light is white light, and wherein the light generating device is configured to provide in the first control mode the device light having a MDEF value of ≥ 5.43-9.31 ∗ v', wherein v' refers to the color coordinates in the CIELUV color space.wherein the MDEF is defined as: MDEF = 1.104 ∗ ∑ λ = 380 780 SPD λ m λ Δ λ ∑ λ = 380 780 SPD λ V λ Δ λ wherein SPD(λ) is the spectral power distribution of the light emitted by the light generating device, m(λ) is the melanopic sensitivity function, the V(λ) is the photopic sensitivity, wherein the light generating device is configured to generate in the first control mode device light having a color point within 15 SDCM from the black body locus, the light generating device being characterized in that the second light has a dominant wavelength selected from the range of 474-500 nm, wherein the first light has a correlated color temperature selected from the range of 2500-4500 K.
Vehicle body and torsion bar system for a vehicle axis, in particular a rear axis of a two-track vehicle with first and second rotary actuators assigned to a vehicle side for active vehicle control, of which each rotary actuator has at least one motor gear unit by means of which torques can be produced and transferred to a wheel suspension element via an output lever as positioning forces, wherein the motor gear units of the two rotary actuators are arranged in a common housing which is mounted in a torque-proof manner on the vehicle body, wherein the housing has at least two attachment points for reinforcing the vehicle body which are spaced apart from one another via a bearing distance (Δγ) and via which the housing is mounted on the vehicle body in a component-rigid manner, wherein the vehicle body has a subframe on which the common housing is mounted, wherein the subframe has two longitudinal beams and wherein a front and a rear transverse beam are provided to form a frame-shaped closed subframe which are connected to one another via the longitudinal beams, characterised in that the common housing is arranged aligned in the vertical direction below the front transverse beam of the subframe and forming a double beam in which the common housing is mounted as an additional transverse beam on the subframe and in that the front transverse beam of the subframe has an attachment point for a drive component and in that the attachment point for the drive component is arranged in the vehicle transverse direction (y) between the attachment points of the common housing.
A process for catalytic dehydrogenation comprising: catalytically dehydrogenating a hydrocarbon feed in the presence of a dehydrogenation catalyst in a fluidized bed catalytic dehydrogenation reactor to produce a product stream comprising used catalyst and at least one dehydrogenated hydrocarbon; separating the used catalyst from gaseous components of the product stream; passing used catalyst to a reactor recycle catalyst fluidization section and to a stripping section separate from the catalyst fluidization section; in the catalyst fluidization section, mixing a fluidization gas comprising methane, natural gas, ethane, hydrogen, nitrogen, or any combination thereof with the used catalyst stream passed to the catalyst fluidization section to form a catalyst recycle stream; in the stripping section, contacting a stripping gas with the used catalyst passed to the stripping section to produce a stripped used catalyst; recycling the catalyst recycle stream either directly or indirectly into the fluidized bed catalytic dehydrogenation reactor; and passing at least a portion of the stripped used catalyst to a catalyst regeneration process. catalytically dehydrogenating a hydrocarbon feed in the presence of a dehydrogenation catalyst in a fluidized bed catalytic dehydrogenation reactor to produce a product stream comprising used catalyst and at least one dehydrogenated hydrocarbon; separating the used catalyst from gaseous components of the product stream; passing used catalyst to a reactor recycle catalyst fluidization section and to a stripping section separate from the catalyst fluidization section; in the catalyst fluidization section, mixing a fluidization gas comprising methane, natural gas, ethane, hydrogen, nitrogen, or any combination thereof with the used catalyst stream passed to the catalyst fluidization section to form a catalyst recycle stream; in the stripping section, contacting a stripping gas with the used catalyst passed to the stripping section to produce a stripped used catalyst; recycling the catalyst recycle stream either directly or indirectly into the fluidized bed catalytic dehydrogenation reactor; and passing at least a portion of the stripped used catalyst to a catalyst regeneration process.
A method for producing an antibody comprising the following steps: - forming an antibody-antibody light chain affinity ligand complex, wherein the antibody light chain affinity ligand is immobilized on a solid phase, by applying a solution comprising the antibody to the immobilized antibody light chain affinity ligand, - incubating the complex formed in the previous step with one or more enzymes to modify the glycosylation of the antibody, and thereby producing the antibody. - forming an antibody-antibody light chain affinity ligand complex, wherein the antibody light chain affinity ligand is immobilized on a solid phase, by applying a solution comprising the antibody to the immobilized antibody light chain affinity ligand, - incubating the complex formed in the previous step with one or more enzymes to modify the glycosylation of the antibody,
A method for wireless communications by a base station, BS, comprising: configuring one or more user equipments, UEs, of a group of UEs with a configuration of one or more resources, wherein the one or more resources includes one or more sidelink channels between each of the UEs in the group of UEs and an uplink channel between the BS and each of the UEs in the group of UEs; monitoring one of the one or more resources for uplink data from a first UE in the group of UEs; receiving uplink data from the first UE in the one of the one or more resources; transmitting an indication to a second UE to retransmit the same uplink data from the first UE when the uplink data from the first UE was not received in the one of the one or more resources. configuring one or more user equipments, UEs, of a group of UEs with a configuration of one or more resources, wherein the one or more resources includes one or more sidelink channels between each of the UEs in the group of UEs and an uplink channel between the BS and each of the UEs in the group of UEs; monitoring one of the one or more resources for uplink data from a first UE in the group of UEs; receiving uplink data from the first UE in the one of the one or more resources; transmitting an indication to a second UE to retransmit the same uplink data from the first UE when the uplink data from the first UE was not received in the one of the one or more resources.
A method for single cell analysis by determining the presence and/or amount of one or more target molecules in a plurality of cells, comprising: (i) immobilizing the plurality of cells on a solid substrate, wherein the plurality of cells are immobilized in a monolayer form, wherein each individual immobilized cell is spaced apart from each other such that the individual immobilized cells do not directly contact each other; (ii) determining a position of each immobilized cell of the plurality of cells on the solid substrate; (iii) determining an auto-fluorescence background signal of each immobilized cell of the plurality of cells on the solid substrate; (iv) contacting each immobilized cell immobilized on the solid substrate with at least a first detection reagent comprising (a) a moiety that specifically recognizes and binds a first target molecule and (b) a fluorescent label, wherein the contacting occurs under conditions that allow binding of the at least a first detection reagent to the first target molecule; (v) measuring a fluorescence of the fluorescent label of each of the at least a first detection reagent bound to the first target molecule of each immobilized cell of the plurality of cells; and (vi) determining the presence and/or amount of the first target molecule of each individual immobilized cell of the plurality of cells by comparing the auto-fluorescence background signal of each individual immobilized cell on the solid substrate with the fluorescence of the fluorescent label of the at least a first detection reagent on a cell-by-cell basis. (i) immobilizing the plurality of cells on a solid substrate, wherein the plurality of cells are immobilized in a monolayer form, wherein each individual immobilized cell is spaced apart from each other such that the individual immobilized cells do not directly contact each other; (ii) determining a position of each immobilized cell of the plurality of cells on the solid substrate; (iii) determining an auto-fluorescence background signal of each immobilized cell of the plurality of cells on the solid substrate; (iv) contacting each immobilized cell immobilized on the solid substrate with at least a first detection reagent comprising (a) a moiety that specifically recognizes and binds a first target molecule and (b) a fluorescent label, wherein the contacting occurs under conditions that allow binding of the at least a first detection reagent to the first target molecule; (v) measuring a fluorescence of the fluorescent label of each of the at least a first detection reagent bound to the first target molecule of each immobilized cell of the plurality of cells; and (vi) determining the presence and/or amount of the first target molecule of each individual immobilized cell of the plurality of cells by comparing the auto-fluorescence background signal of each individual immobilized cell on the solid substrate with the fluorescence of the fluorescent label of the at least a first detection reagent on a cell-by-cell basis.
Device for removing planar objects, such as glass panes, from a frame on which the objects are stacked in abutment, wherein spacers are disposed between objects, wherein holding devices are disposed on a support in order to remove the objects, wherein at least one removal device for spacers is disposed on the support in the region above the holding devices, and wherein the holding devices and the removal device are disposed on the same side of the support, characterized in that the removal device comprises two or more penetrating bodies for spacers which are disposed on at least one preferably essentially horizontally orientated strip next to one another, in that the removal device has a support assembly for spacers, in that the support assembly and the penetrating bodies are displaceable with respect to each other, and in that the support assembly has holes which are preferably disposed in at least two rows and through which the penetrating bodies can be displaced.
A compound of formula, Ar(NHSO 2 Ar 1) l (SO 2 NHAr 1) m (NHC NHAr 2) n, wherein l and m independently of one another are 0, 1, 2, 3 and/or 4 and the sum of 1+m is equal to or greater than 1, n is 2, 3, 4 or 5, Ar is benzene group substituted (l+m+n) times, Ar 1 is an unsubstituted or substituted aromatic group, and Ar 2 is an unsubstituted or substituted phenyl group or a benzoyl group. l and m independently of one another are 0, 1, 2, 3 and/or 4 and the sum of 1+m is equal to or greater than 1, n is 2, 3, 4 or 5, Ar is benzene group substituted (l+m+n) times, Ar 1 is an unsubstituted or substituted aromatic group, and Ar 2 is an unsubstituted or substituted phenyl group or a benzoyl group.
A method of making paper or paperboard comprising: a) applying a composition comprising enzyme and cationic coagulant to a paper making pulp to form a treated pulp, wherein said composition is added after a white water silo and prior to at least one of a head box, a screen, or a fan pump; and b) forming the treated pulp into paper or paperboard; wherein pulp temperatures of the treated pulp during at least substantially an entire time of contact of the composition with the pulp is maintained at from about 30°C to about 60°C and the time of contact is from about 1 minute to about 150 minutes. a) applying a composition comprising enzyme and cationic coagulant to a paper making pulp to form a treated pulp, wherein said composition is added after a white water silo and prior to at least one of a head box, a screen, or a fan pump; and b) forming the treated pulp into paper or paperboard;
A powderous composition comprising (i) up to 70 weight-% (wt-%), based on the total weight of the powderous composition, of at least one fat-soluble vitamin, and (ii) 5-30 wt-%, based on the total weight of the powderous composition, of at least one D-glycose oligomer (preferably a maltodextrin) having a DE of < 18, and (iii) 5-30 wt-%, based on the total weight of the powderous composition, of at least one D-glycose oligomer (preferably a maltodextrin) having a DE of > 18, and (iv) 5-70 wt-%, based on the total weight of the powderous composition, of at least one modified polysaccharide. (i) up to 70 weight-% (wt-%), based on the total weight of the powderous composition, of at least one fat-soluble vitamin, and (ii) 5-30 wt-%, based on the total weight of the powderous composition, of at least one D-glycose oligomer (preferably a maltodextrin) having a DE of < 18, and (iii) 5-30 wt-%, based on the total weight of the powderous composition, of at least one D-glycose oligomer (preferably a maltodextrin) having a DE of > 18, and (iv) 5-70 wt-%, based on the total weight of the powderous composition, of at least one modified polysaccharide.