mhurhangee/ep-ind-claims huggingface dataset:
An enamel composition that is free of lead, cadmium, bismuth, iron, selenium, arsenic, tantalum, chromium and sulfides, the composition comprising a solids portion comprising a frit portion, wherein the frit portion comprises, prior to firing: a. 50-75 wt% SiO 2, b. 4-22 wt% R 2 O, wherein R is at least one of Na and K, c. 2-30 wt% R'O, wherein R' is at least one of Mg, Ca, Sr and Ba, d. 0.5-20 wt% B 2 O 3, e. 1-15 wt% SnO, and 1-10 wt% of at least one of Cu 2 O and CuO. a. 50-75 wt% SiO 2, b. 4-22 wt% R 2 O, wherein R is at least one of Na and K, c. 2-30 wt% R'O, wherein R' is at least one of Mg, Ca, Sr and Ba, d. 0.5-20 wt% B 2 O 3, e. 1-15 wt% SnO, and
Moulding unit for manufacturing a container from a part-finished form made of plastic, this moulding unit comprising: - a mould equipped with a wall defining a cavity in the impression of the container and with an insert able to move with respect to the wall between a retracted position, in which it is retracted with respect to the cavity, and a deployed position, in which it projects at least partially into the cavity; - at least one boxing system comprising a ram provided with a ram body, with a piston and with a rod rigidly attached to the piston and to which the insert is fixed, the rod and the piston being able to move as one between a retracted position corresponding to the retracted position of the insert, and a deployed position corresponding to the deployed position of the insert, the ram body and the piston jointly defining, one on each side of the piston, a primary chamber connected, via a primary fluidic circuit, to a primary source of fluid at a primary pressure, and a secondary chamber connected, via a secondary fluidic circuit, to a secondary source of fluid at a secondary pressure that is comparatively lower, this moulding unit being characterized in that the boxing system comprises: - at least one electrically-operated valve mounted on the primary fluidic circuit, this electrically-operated valve comprising a fluidic outlet connected to the primary chamber and defining a bore section that can vary according to an electric control signal applied to the electrically-operated valve; - a processing unit connected to the electrically-operated valve and programmed to cause the electric control signal applied thereto to vary. - a mould equipped with a wall defining a cavity in the impression of the container and with an insert able to move with respect to the wall between a retracted position, in which it is retracted with respect to the cavity, and a deployed position, in which it projects at least partially into the cavity; - at least one boxing system comprising a ram provided with a ram body, with a piston and with a rod rigidly attached to the piston and to which the insert is fixed, the rod and the piston being able to move as one between a retracted position corresponding to the retracted position of the insert, and a deployed position corresponding to the deployed position of the insert, the ram body and the piston jointly defining, one on each side of the piston, a primary chamber connected, via a primary fluidic circuit, to a primary source of fluid at a primary pressure, and a secondary chamber connected, via a secondary fluidic circuit, to a secondary source of fluid at a secondary pressure that is comparatively lower, - at least one electrically-operated valve mounted on the primary fluidic circuit, this electrically-operated valve comprising a fluidic outlet connected to the primary chamber and defining a bore section that can vary according to an electric control signal applied to the electrically-operated valve; - a processing unit connected to the electrically-operated valve and programmed to cause the electric control signal applied thereto to vary.
A light emitting device package comprising: a package body; a light emitting device disposed on the package body; and an adhesive disposed between the package body and the light emitting device, wherein the package body comprises first and second openings (TH1, TH2) passing through the package body on an upper surface of the package body and a recess provided to concave in a direction of a lower surface of the package body from the upper surface of the package body, wherein the light emitting device comprises a first bonding part disposed on the first opening and a second bonding part disposed on the second opening, and wherein the adhesive is provided at the recess, characterised in that the recess is provided at a periphery of the first and second openings (TH1, TH2) in a closed loop shape, wherein an outline connecting four side surfaces of the light emitting device is provided to be overlapped on the recess when viewed from the upper direction of the light emitting device. a package body; a light emitting device disposed on the package body; and an adhesive disposed between the package body and the light emitting device, wherein the package body comprises first and second openings (TH1, TH2) passing through the package body on an upper surface of the package body and a recess provided to concave in a direction of a lower surface of the package body from the upper surface of the package body, wherein the light emitting device comprises a first bonding part disposed on the first opening and a second bonding part disposed on the second opening, and wherein the adhesive is provided at the recess, characterised in that the recess is provided at a periphery of the first and second openings (TH1, TH2) in a closed loop shape, wherein an outline connecting four side surfaces of the light emitting device is provided to be overlapped on the recess when viewed from the upper direction of the light emitting device.
An appliance for the size-reduction and drying of waste material, slag, rocks and similar materials, comprising an essentially funnel-shaped vessel with a cylindrical attachment, on which at least two air inlets for introducing compressed and possibly heated air are arranged in a manner distributed over the periphery, with an exit opening for size-reduced material on the base of the funnel-like vessel and with an air outflow opening which is arranged on the cylindrical attachment at the end of the vessel which is larger in diameter and which lies opposite the exit opening, as well as with a feed device for the material which is to be reduced in size, said feed device running out into the cylindrical attachment, characterised in that a supersonic nozzle with a cross-sectional course which corresponds to a Laval nozzle and with a Venturi function is each arranged on the at least two air inlets which are distributed over the periphery of the cylindrical attachment, in a manner such that the fed air can be introduced in the peripheral direction of the cylindrical attachment and of the funnel-shaped vessel.
A method of testing whether a patient suffering from multiple myeloma will respond or not to a combination treatment consisting of at least one hydroxamate histone deacetylase inhibitor (hydroxamate HDACi) with at least one DNA methyltransferase inhibitor (DNMTi) comprising: i) determining the expression level (ELi) of genes G 1 -G 96 of table A in a biological sample obtained from said patient ii) comparing for each gene the expression level (ELi) determined at step i) with a corresponding predetermined reference level (ELRi) indicated in Table A iii) calculating the HADMS score trough the following formula HADMS = ∑ i = 1 n βi × Ci wherein βi represent the corresponding regression β coefficient reference value for the gene G i indicated in Table A and Ci = 1 if the expression of the gene G i (ELi) is higher than the predetermined reference level (ELRi) or Ci = -1 if the expression of the gene (ELi) is lower than or equal to the predetermined reference level (ELRi) iv) comparing the score HADMS determined at step iii) with a predetermined reference value HADMS R wherein said HADMS R is equal to -21.57 v) and concluding that the patient will respond to the combination treatment when the HADMS score is higher than the predetermined reference value HADMS R or concluding that the patient will not respond to the combination treatment when the HADMS score is lower than the predetermined reference value HADMS R. i) determining the expression level (ELi) of genes G 1 -G 96 of table A in a biological sample obtained from said patient ii) comparing for each gene the expression level (ELi) determined at step i) with a corresponding predetermined reference level (ELRi) indicated in Table A iii) calculating the HADMS score trough the following formula HADMS = ∑ i = 1 n βi × Ci wherein βi represent the corresponding regression β coefficient reference value for the gene G i indicated in Table A and Ci = 1 if the expression of the gene G i (ELi) is higher than the predetermined reference level (ELRi) or Ci = -1 if the expression of the gene (ELi) is lower than or equal to the predetermined reference level (ELRi) iv) comparing the score HADMS determined at step iii) with a predetermined reference value HADMS R wherein said HADMS R is equal to -21.57 v) and concluding that the patient will respond to the combination treatment when the HADMS score is higher than the predetermined reference value HADMS R or concluding that the patient will not respond to the combination treatment when the HADMS score is lower than the predetermined reference value HADMS R.
An optical fiber comprising: one or more primary optical cores having a first set of properties; one or more secondary optical cores having a second set of properties; wherein the one or more primary optical cores and the one or more secondary optical cores comprise a first core having a first radius and at least a second core having a second radius greater than the first radius, the cores being helically-wound around a center of the fiber, and wherein the primary set of properties includes a first temperature response and the secondary set of properties includes a second temperature response sufficiently different from the first temperature response to allow a sensing apparatus when coupled to the optical fiber to distinguish between temperature and strain induced by applied twist on the optical fiber. one or more primary optical cores having a first set of properties; one or more secondary optical cores having a second set of properties; wherein the one or more primary optical cores and the one or more secondary optical cores comprise a first core having a first radius and at least a second core having a second radius greater than the first radius, the cores being helically-wound around a center of the fiber, and wherein the primary set of properties includes a first temperature response and the secondary set of properties includes a second temperature response sufficiently different from the first temperature response to allow a sensing apparatus when coupled to the optical fiber to distinguish between temperature and strain induced by applied twist on the optical fiber.
A sealant for an electrochemical device in which a non-aqueous electrolysis solution is used, comprising: a conjugated diene polymer; an aromatic vinyl-conjugated diene block polymer; and a hydrogenated amine-modified aromatic vinyl-conjugated diene block polymer. a conjugated diene polymer; an aromatic vinyl-conjugated diene block polymer; and a hydrogenated amine-modified aromatic vinyl-conjugated diene block polymer.
A method for managing an operation mode of a hearing aid, the method comprising the processes of: determining whether the hearing aid is worn by a user; if the hearing aid is not worn by the user, operating the hearing aid in a first low power mode; and if the hearing aid is worn by the user, identifying a magnitude of an input sound pressure applied to a microphone of the hearing aid; and deciding the operation mode of the hearing aid based on the magnitude of the input sound pressure, wherein the operation mode includes a second low power mode different from the first low power mode, and wherein the method further comprises before the process of identifying the magnitude of the input sound pressure, checking whether a sound signal is received through the microphone of the hearing aid; and if a sound signal is not received through the microphone of the hearing aid during an effective time, deciding the operation mode of the hearing aid as the second low power mode. determining whether the hearing aid is worn by a user; if the hearing aid is not worn by the user, operating the hearing aid in a first low power mode; and if the hearing aid is worn by the user, identifying a magnitude of an input sound pressure applied to a microphone of the hearing aid; and deciding the operation mode of the hearing aid based on the magnitude of the input sound pressure, wherein the operation mode includes a second low power mode different from the first low power mode, and wherein the method further comprises before the process of identifying the magnitude of the input sound pressure, checking whether a sound signal is received through the microphone of the hearing aid; and if a sound signal is not received through the microphone of the hearing aid during an effective time, deciding the operation mode of the hearing aid as the second low power mode.
A shaped body comprising at least one solid material and a cured epoxy resin wherein the cured epoxy resin is prepared from an epoxy resin composition containing at least one epoxy resin having at least one epoxy group per molecule; at least one curing agent selected from cyanoalkylated polyamines of formula A(NH-X-CN) n, wherein A is a group selected from aryl, arylalkyl, alkyl, and cycloalkyl, wherein A does not contain a primary amino group, X is alkylene having 1 to 10 C-atoms, and n ≥ 2; and at least one accelerator selected from tertiary amines, imidazoles, guanidines, urea compounds, and Lewis acids, wherein the shaped body has a porosity of 20 to 80 % based on the total volume of the shaped body. A is a group selected from aryl, arylalkyl, alkyl, and cycloalkyl, wherein A does not contain a primary amino group, X is alkylene having 1 to 10 C-atoms, and n ≥ 2; and
A system for controlling the pitch setting of a propeller vane for an aircraft turbine engine, which comprises: - a cup comprising an annular wall extending about an axis intended to be a pitch axis of the vane, said annular wall comprising a lower axial end closed by a bottom wall and an upper axial end that is open and configured to allow a root of the vane to be mounted inside the cup, the bottom wall being configured to cooperate in a form-fitting manner with a free end of said root so that the cup is secured in rotation to the root about said axis, characterised in that the system for controlling the pitch setting of a propeller vane further comprises: - an immobilisation ring (52, 52') extending about said axis and configured to be mounted about the root, this immobilisation ring (52, 52') being configured to be mounted within the cup and to cooperate with the root and the annular wall of the cup, respectively, in order to ensure the axial retention of the root within the cup. - a cup comprising an annular wall extending about an axis intended to be a pitch axis of the vane, said annular wall comprising a lower axial end closed by a bottom wall and an upper axial end that is open and configured to allow a root of the vane to be mounted inside the cup, the bottom wall being configured to cooperate in a form-fitting manner with a free end of said root so that the cup is secured in rotation to the root about said axis, characterised in that the system for controlling the pitch setting of a propeller vane further comprises: - an immobilisation ring (52, 52') extending about said axis and configured to be mounted about the root, this immobilisation ring (52, 52') being configured to be mounted within the cup and to cooperate with the root and the annular wall of the cup, respectively, in order to ensure the axial retention of the root within the cup.
A corona igniter for providing a corona discharge, comprising: a central electrode extending longitudinally from an electrode terminal end to an electrode firing end; said central electrode including a core material; an insulator formed of an electrically insulating material disposed around said central electrode; a shell formed of an electrically conductive material disposed around said insulator; and wherein said core material of said central electrode is disposed at said electrode terminal end the corona igniter being characterized in that the core material is surrounded by a clad material, wherein each of said materials (30, 32) of said central electrode have a thermal conductivity, and said thermal conductivity of said core material is greater than said thermal conductivity of said clad material. a central electrode extending longitudinally from an electrode terminal end to an electrode firing end; said central electrode including a core material; an insulator formed of an electrically insulating material disposed around said central electrode; a shell formed of an electrically conductive material disposed around said insulator; and
Harvesting device for cutting and collecting stalked crops, the collecting taking place along a conveying path by means of several collection units arranged side by side, which together define a total working width of the harvesting device and individually, or together with a plurality of collection units, define a partial working width for a relevant conveying path, and for separating infructescences from the stalks of the stalked crop, the separating of the infructescences taking place in picking gaps which are assigned to respective collection units, characterised in that the partial working widths (14a, 14b) defined by the collection units have different width dimensions.
A system comprising: a magnetic resonance scanner defining an examination volume; and at least one processor programmed to: control the MR scanner to apply imaging sequences to a subject arranged in the examination volume; in response to the imaging sequences, acquire a series of MR data sets of the subject at a plurality of mutually different echo times (TEs); reconstruct an MR phase image from each MR data set, thereby generating a series of MR phase images; phase unwrap the series of MR phase images; map the intensity of the series of MR phase images as a function of time, thereby producing a series of phase accumulation maps; and to use the change in phase over time from the series of phase accumulation maps to identify the tissue and/or material type of each pixel or voxel of interest within a volume of the subject. a magnetic resonance scanner defining an examination volume; and at least one processor programmed to: control the MR scanner to apply imaging sequences to a subject arranged in the examination volume; in response to the imaging sequences, acquire a series of MR data sets of the subject at a plurality of mutually different echo times (TEs); reconstruct an MR phase image from each MR data set, thereby generating a series of MR phase images; phase unwrap the series of MR phase images; map the intensity of the series of MR phase images as a function of time, thereby producing a series of phase accumulation maps; and to use the change in phase over time from the series of phase accumulation maps to identify the tissue and/or material type of each pixel or voxel of interest within a volume of the subject. control the MR scanner to apply imaging sequences to a subject arranged in the examination volume; in response to the imaging sequences, acquire a series of MR data sets of the subject at a plurality of mutually different echo times (TEs); reconstruct an MR phase image from each MR data set, thereby generating a series of MR phase images; phase unwrap the series of MR phase images; map the intensity of the series of MR phase images as a function of time, thereby producing a series of phase accumulation maps; and to use the change in phase over time from the series of phase accumulation maps to identify the tissue and/or material type of each pixel or voxel of interest within a volume of the subject.
A high pressure fuel pump comprising at least one pumping head (10, 20) and an improved drive assembly, the drive assembly comprising a drive means and a drive shaft comprising a rider journal adjoined to a rear bearing, the journal and the bearing comprising offset axes (C-C', D-D') relative to one another, a rider fitted on said drive shaft to effect movement of the rider along an eccentric rotational path, the rider comprising a body with an open-ended aperture therethrough, a load section disposed around a first portion of the circumference of the aperture and an idle section disposed around a second portion of the circumference of the aperture, and wherein the load section of the rider comprises at least one outwardly facing flat surface (56, 57) for cooperation with a tappet (35, 36), characterised in that the drive shaft comprises an enlarged rear bearing with a reduced-depth section at a bearing-journal junction, and the idle section of the rider comprises a reduced-width portion, and wherein the reduced-depth section is achieved by causing the rear bearing to adopt the cylindrical profile of the rider journal in the section, in the region of an overhang and, wherein the offset axes (C-C', D-D') and the enlarged rear bearing create the bearing overhang and a journal overhang at the bearing-journal junction.
An electronic component supply system configured to determine the types of electronic components installed on component pallets at a time when the electronic components are installed on the component pallets, wherein each component pallet has multiple slots and component cartridges which are attachably and detachably installed in the respective slots, and multiple component reels are attachably and detachably installed in the component cartridges, wherein the electronic component supply system is configured to determine the types of the electronic components installed on the component pallets based on planned multiple jobs continuously performed by multiple electronic component mounting machines (10a, 10b, 10c, 10d) to which the component pallets are attached and an execution order for the jobs such that the number of the component pallets exchanged during job switching is minimized, wherein each job uses different types or numbers of electronic components, wherein the electronic component supply system is configured to determine the types of the electronic components installed on one of the exchanged component pallets such that the types of electronic components not used before the switching and used in the jobs after the switching are collectively installed on said exchanged component pallet.