mhurhangee/ep-ind-claims huggingface dataset:
A bulk material loading wagon for incorporation into a loading train consisting of several such wagons, including a storage box for storing bulk material, the storage box being open at the top and fastened to a wagon frame, and - associated with the storage box - a bottom conveyor belt, extending in the lower region of the storage box and in the longitudinal direction of the wagon, which is designed endless while forming two deflection ends spaced from one another in the conveying direction and has a conveying drive, and further including a transfer conveyor belt arranged at an angle to the bottom conveyor belt, the transfer conveyor belt having a lower deflection end adjoining the wagon frame and an upper deflection end spaced farther from the wagon frame, characterized in that, between two adjacent on-track undercarriages, the wagon frame has an opening for passage of a lower section - adjoining the lower deflection end - of the transfer conveyor belt, and that a drive is provided for displacement of the transfer conveyor belt in its conveying- or longitudinal direction through the opening relative to the wagon frame.
A system for phrenic nerve stimulation, the system comprising: a catheter (200,...,1000) including one or more intravascular electrodes (310,...,1010) each arranged on a distal portion (240,...,1040) of the catheter, the catheter being configured to be introduced in the superior vena cava of a human patient so as to position the distal portion in the superior vena cava, in the right brachiocephalic vein, and/or in the right subclavian vein, and an extracorporeal electrode patch (260, 460) configured to be affixed to the patient opposite to the distal portion relative to the phrenic nerve, characterized by the extracorporeal electrode patch being operable in a bipolar mode with the one or more intravascular electrodes to perform phrenic nerve stimulation.. a catheter (200,...,1000) including one or more intravascular electrodes (310,...,1010) each arranged on a distal portion (240,...,1040) of the catheter, the catheter being configured to be introduced in the superior vena cava of a human patient so as to position the distal portion in the superior vena cava, in the right brachiocephalic vein, and/or in the right subclavian vein, and an extracorporeal electrode patch (260, 460) configured to be affixed to the patient opposite to the distal portion relative to the phrenic nerve, characterized by the extracorporeal electrode patch being operable in a bipolar mode with the one or more intravascular electrodes to perform phrenic nerve stimulation..
An electrode wire for use in an electrical discharge machining apparatus, comprising: a metallic core comprising copper; a layer of gamma phase brass disposed over the metallic core; a layer of beta phase brass between the core and the gamma phase brass layer; beta phase brass particles precipitates within the gamma phase brass layer; and an oxide layer including zinc disposed over the gamma phase brass layer. a metallic core comprising copper; a layer of gamma phase brass disposed over the metallic core; a layer of beta phase brass between the core and the gamma phase brass layer; beta phase brass particles precipitates within the gamma phase brass layer; and an oxide layer including zinc disposed over the gamma phase brass layer.
A method, comprising: receiving, by a hardware processor, a first software program, wherein the first software program is designed to execute using a second software program, a first symbolic value indicating a characteristic of the second software program; analyzing, by the hardware processor, the first software program using a static program analysis, wherein the static program analysis includes a symbolic computation for the second software program and a concrete computation for the first software program and generates a second symbolic value based on the first symbolic value, the second symbolic value comprising the first symbolic value and a concrete non-symbolic value associated with the first software program and indicating a characteristic of the first software program, wherein the first software program is analyzed independent of an availability of the second software program; determining, by the hardware processor, that the second symbolic value is associated with a predetermined characteristic and that the first software program would perform an action associated with the second symbolic value if the first software program was executed using the second software program; and in response to the determining, generating, by the hardware processor, a warning signal. receiving, by a hardware processor, a first software program, wherein the first software program is designed to execute using a second software program, a first symbolic value indicating a characteristic of the second software program; analyzing, by the hardware processor, the first software program using a static program analysis, wherein the static program analysis includes a symbolic computation for the second software program and a concrete computation for the first software program and generates a second symbolic value based on the first symbolic value, the second symbolic value comprising the first symbolic value and a concrete non-symbolic value associated with the first software program and indicating a characteristic of the first software program, wherein the first software program is analyzed independent of an availability of the second software program; determining, by the hardware processor, that the second symbolic value is associated with a predetermined characteristic and that the first software program would perform an action associated with the second symbolic value if the first software program was executed using the second software program; and in response to the determining, generating, by the hardware processor, a warning signal.
Compactor, suitable for compacting and wrapping bulk material and suitable for road transportation, said compactor comprising a bunker for reception of the bulk material, and conveyor means to convey the bulk material, a baler unit for pressing and wrapping bulk material received from the conveyor means of the bunker, said bunker exhibiting a front end adjacent to the baler unit, and a rear end, arranged to face a supply of bulk material, said compactor having a longitudinal axis coinciding with the transport direction of the compactor on a road, wherein the bunker comprises a first and second bunker section mounted to a frame in a pivotal manner in a substantially vertical direction about a horizontal axis extending substantially perpendicularly to the longitudinal axis, wherein the respective bunker section exhibits a side plate (202A, 203A; 202B, 203B) extending along the longitudinal axis, at an outer edge of the bunker section, wherein the first bunker section and second bunker section are mounted mutually displaced in a direction along the longitudinal axis and in a substantially horizontal direction perpendicular to the longitudinal axis, and movable in a substantially horizontal direction perpendicular to the longitudinal axis, to enable one folded bunker section to be moved and inserted at least partly under the other folded bunker section for transport of the compactor.
Vessel comprising a hull and a deck, a substantially cylindrical rotor having a peripheral wall rotatable with respect to the deck around a longitudinal center line, the rotor being mounted on the deck in such a manner that in an operational state the rotor is substantially vertically oriented, wherein a flap is arranged near the rotor, extending substantially in a plane which is parallel to the rotational axis of the rotor, and the length of the flap chord (Rfc) is between 20%-90% of the rotor diameter (Dr), wherein the position of the flap can be adjusted with reference to the longitudinal center line, wherein the flap comprises a leading edge and a trailing edge, and characterised in that the flap comprises a winglet which transversally extends at each side of the flap trailing edge.
A display apparatus comprising: a display panel comprising a plurality of gate lines, a plurality of data lines and a plurality of pixels electrically connected to the gate lines and the data lines, wherein the display panel is configured to display an image; a gate driver disposed adjacent to a first side of the display panel, wherein the gate driver is configured to output a gate signal to the gate lines; and a data driver disposed adjacent to the first side of the display panel, wherein the data driver is configured to output a data voltage to the data lines characterized by a gate pulse of the gate signal having a kickback slice, defined by a kickback signal, as a portion having a level lower than a gate-on voltage level, the kickback slice of the pulse of the gate signal applied to a gate line having a position with a low resistance-capacitance delay of the gate lines is greater than the kickback slice of the pulse of a gate signal applied to a gate line having a position with a high resistance-capacitance delay of the gate lines, the kickback slice is defined as a transition from the gate-on voltage level to a gate-off voltage level in the gate pulse of the gate signal, and where a greater kickback slice is defined as an increase in kickback active duration of the kickback signal or as an increase in drop of the gate-on voltage level without adjusting the kickback active duration of the kickback signal, wherein the kickback active duration is defined as the duration when the kickback signal has an active level. a display panel comprising a plurality of gate lines, a plurality of data lines and a plurality of pixels electrically connected to the gate lines and the data lines, wherein the display panel is configured to display an image; a gate driver disposed adjacent to a first side of the display panel, wherein the gate driver is configured to output a gate signal to the gate lines; and a data driver disposed adjacent to the first side of the display panel, wherein the data driver is configured to output a data voltage to the data lines characterized by a gate pulse of the gate signal having a kickback slice, defined by a kickback signal, as a portion having a level lower than a gate-on voltage level, the kickback slice of the pulse of the gate signal applied to a gate line having a position with a low resistance-capacitance delay of the gate lines is greater than the kickback slice of the pulse of a gate signal applied to a gate line having a position with a high resistance-capacitance delay of the gate lines, the kickback slice is defined as a transition from the gate-on voltage level to a gate-off voltage level in the gate pulse of the gate signal, and where a greater kickback slice is defined as an increase in kickback active duration of the kickback signal or as an increase in drop of the gate-on voltage level without adjusting the kickback active duration of the kickback signal, wherein the kickback active duration is defined as the duration when the kickback signal has an active level.
A power management circuit (106, 200) comprising: an electrical power input configured to receive electrical power from a power source; a controller; a finite state machine circuit in communication with the controller; a first voltage regulator in communication with the controller and the electrical power input to receive electrical power and having a first output connectable to a first capacitor configured to store electrical power and connectable to first electrical circuitry, wherein the controller is configured to cyclically enable the first voltage regulator to supply current to charge the first capacitor and wherein the finite state machine circuit is configured to interact with the controller to control the duration of a first time period (Ton) of a cycle over which the first voltage regulator supplies current to charge the first capacitor and to control the duration of a second time period (Toff) of the cycle over which the first voltage regulator does not supply current to charge the first capacitor and during which electrical current is receivable by said first electrical circuitry from said first capacitor; and a first voltage monitor in communication with the first output and the finite state machine circuit, characterised in that the first voltage monitor is configured to output a first indication of the voltage of the first capacitor and wherein the finite state machine circuit is further configured to control the duration of the second time period (Toff) based on the first indication of the voltage of the first capacitor. an electrical power input configured to receive electrical power from a power source; a controller; a finite state machine circuit in communication with the controller; a first voltage regulator in communication with the controller and the electrical power input to receive electrical power and having a first output connectable to a first capacitor configured to store electrical power and connectable to first electrical circuitry, wherein the controller is configured to cyclically enable the first voltage regulator to supply current to charge the first capacitor and wherein the finite state machine circuit is configured to interact with the controller to control the duration of a first time period (Ton) of a cycle over which the first voltage regulator supplies current to charge the first capacitor and to control the duration of a second time period (Toff) of the cycle over which the first voltage regulator does not supply current to charge the first capacitor and during which electrical current is receivable by said first electrical circuitry from said first capacitor; and a first voltage monitor in communication with the first output and the finite state machine circuit, characterised in that the first voltage monitor is configured to output a first indication of the voltage of the first capacitor and wherein the finite state machine circuit is further configured to control the duration of the second time period (Toff) based on the first indication of the voltage of the first capacitor.
A liquid delivery element comprising: a first end and a second end; a deformable outer container having at least one flexible wall; and a frangible tubular element mounted within the deformable outer container and defining a longitudinal channel extending through the deformable outer container between the first end and the second end of the liquid delivery element, wherein a cavity is defined between the at least one flexible wall of the deformable outer container and the frangible tubular element, the cavity containing a liquid which surrounds the frangible tubular element, wherein the liquid delivery element is configured to release the liquid from the cavity when at least one wall of the frangible tubular element is broken, and wherein the frangible tubular element is breakable upon application of a force to the liquid delivery element to deform the deformable outer container. a first end and a second end; a deformable outer container having at least one flexible wall; and a frangible tubular element mounted within the deformable outer container and defining a longitudinal channel extending through the deformable outer container between the first end and the second end of the liquid delivery element, wherein a cavity is defined between the at least one flexible wall of the deformable outer container and the frangible tubular element, the cavity containing a liquid which surrounds the frangible tubular element, wherein the liquid delivery element is configured to release the liquid from the cavity when at least one wall of the frangible tubular element is broken, and wherein the frangible tubular element is breakable upon application of a force to the liquid delivery element to deform the deformable outer container.
A pneumatic tire including a tread portion, wherein a belt layer including at least one belt ply is embedded in the tread portion, the belt ply includes a flattened belt cord formed of a single cord, and a topping rubber covering the belt cord, and a major axis / minor axis ratio is 1.05 to 1.50, and a length of the major axis is 0.30 to 0.50 mm in the belt cord, characterized in that the minor axis of the belt cord extends in the thickness direction of the belt ply, and the topping rubber has a complex elastic modulus (E*) of 14.0 to 20.0 MPa, when the complex elastic modulus is measured using a viscoelasticity spectrometer in compliance with JIS K6394 "Rubber, vulcanized or thermoplastic - Determination of dynamic properties - General guidance" under the conditions of initial strain being 10%, amplitude being ±1%, frequency being 10 Hz, deformation mode being tension, measurement temperature being70°C, and viscoelasticity spectrometer being Iwamoto Seisakusho. a belt layer including at least one belt ply is embedded in the tread portion, the belt ply includes a flattened belt cord formed of a single cord, and a topping rubber covering the belt cord, and a major axis / minor axis ratio is 1.05 to 1.50, and a length of the major axis is 0.30 to 0.50 mm in the belt cord, characterized in that the minor axis of the belt cord extends in the thickness direction of the belt ply, and the topping rubber has a complex elastic modulus (E*) of 14.0 to 20.0 MPa, when the complex elastic modulus is measured using a viscoelasticity spectrometer in compliance with JIS K6394 "Rubber, vulcanized or thermoplastic - Determination of dynamic properties - General guidance" under the conditions of initial strain being 10%, amplitude being ±1%, frequency being 10 Hz, deformation mode being tension, measurement temperature being70°C, and viscoelasticity spectrometer being Iwamoto Seisakusho.
A preparation comprising at least one chemotherapeutic or cytotoxic substance for the use in treatment of cancer of a mammalian patient, characterized in that the treatment comprises at least the following steps: - transmittal of a substantially non-cytotoxic dose of microbeam radiation to a tumor tissue of a patient, wherein the dose of microbeam radiation comprises several beams of a microscopic cross-section and is adapted to generate at least one microscopic damage region comprising a lesion in at least one boundary wall structure of a supply portion of the tumor tissue, the supply portion being a blood vessel; - administration of the preparation to the patient after the transmittal of the dose of microbeam radiation, such that the chemotherapeutic or cytotoxic substance and/or a metabolic derivative thereof reaches the at least one microscopic damage region before the at least one microscopic damage region is completely cured by endogenous tissue repair. - transmittal of a substantially non-cytotoxic dose of microbeam radiation to a tumor tissue of a patient, wherein the dose of microbeam radiation comprises several beams of a microscopic cross-section and is adapted to generate at least one microscopic damage region comprising a lesion in at least one boundary wall structure of a supply portion of the tumor tissue, the supply portion being a blood vessel; - administration of the preparation to the patient after the transmittal of the dose of microbeam radiation, such that the chemotherapeutic or cytotoxic substance and/or a metabolic derivative thereof reaches the at least one microscopic damage region before the at least one microscopic damage region is completely cured by endogenous tissue repair.
A method for establishing secure communication between a sender and a recipient using a device on which a data management program for managing public keys (key management program) and an encryption program for encrypting reference data (encryption program) are operated, wherein these are integrated into a computer network between the sender and recipient and the device has at least one looped-through computer interface, wherein an identification program is run in the device which also reads a data stream between sender and recipient and identifies reference data, filters it out and passes it on to the encryption program that has been preinstalled or installed subsequently by a program upgrade, which obtains a key from the key management program for encryption and forwarding to the recipient, wherein the device and its programs is not identifiably integrated in the computer network, in such a manner that the device as a technical link without its own MAC or IP address cannot be seen by unauthorized third parties and other devices in the network infrastructure or cannot be controlled by the latter and identification, encryption and key management programs are executed autonomously without administrative intervention, in particular the key management program completes a necessary key request and key generation autonomously.
A method of determining whether a subject has or is at risk of developing a pulmonary fibrotic condition, said method comprising detecting in a biological sample from said subject whether a genome of said subject comprises the T allele of rs35705950 and wherein the presence of the T allele indicates said subject has or is at risk of developing a pulmonary fibrotic condition.
A process for.producing a highly purified glucosyl stevia composition, comprising the steps of: adding starch into water to form a starch suspension; adding a mixture of α -amylase and CGTase into the starch suspension and incubating for 0.5 to 2 hours at about 75-80°C, resulting in a liquefied starch suspension; inactivating the α -amylase by low pH heat treatment; cooling the liquefied starch suspension and adjusting the pH to 5.5 to 7.0; adding freely soluble form of steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; adding a second batch of CGTase into the reaction mixture and incubating for 12 to 48 hours at 55-75°C; inactivating the CGTase by low heat treatment; decolorizing the reaction mixture; cooling the reaction mixture and adjusting the pH to about 2.0 to 4.5; precipitating the unreacted steviol glycosides; separating the precipitated unreacted steviol glycosides crystal from filtrate; adjusting the pH of filtrate to 5.5 to 7.0; removing impurities by contacting the filtrate with macroporous adsorbent resin and subsequently eluting adsorbed diterpene glycosides with aqueous ethanol to result in a glycoside-containing aqueous ethanol eluate; removing ethanol from the aqueous ethanol eluate, resulting in an aqueous eluate; and concentrating and drying the aqueous eluate to obtain the highly purified glucosyl stevia composition, wherein the highly purified glucosyl stevia composition comprises derivatives containing α -1,4-glucosyl residues attached to glycosidic residues of C13 position of steviol, and unmodified steviol glycosides. adding starch into water to form a starch suspension; adding a mixture of α -amylase and CGTase into the starch suspension and incubating for 0.5 to 2 hours at about 75-80°C, resulting in a liquefied starch suspension; inactivating the α -amylase by low pH heat treatment; cooling the liquefied starch suspension and adjusting the pH to 5.5 to 7.0; adding freely soluble form of steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; adding a second batch of CGTase into the reaction mixture and incubating for 12 to 48 hours at 55-75°C; inactivating the CGTase by low heat treatment; decolorizing the reaction mixture; cooling the reaction mixture and adjusting the pH to about 2.0 to 4.5; precipitating the unreacted steviol glycosides; separating the precipitated unreacted steviol glycosides crystal from filtrate; adjusting the pH of filtrate to 5.5 to 7.0; removing impurities by contacting the filtrate with macroporous adsorbent resin and subsequently eluting adsorbed diterpene glycosides with aqueous ethanol to result in a glycoside-containing aqueous ethanol eluate; removing ethanol from the aqueous ethanol eluate, resulting in an aqueous eluate; and concentrating and drying the aqueous eluate to obtain the highly purified glucosyl stevia composition, wherein the highly purified glucosyl stevia composition comprises derivatives containing α -1,4-glucosyl residues attached to glycosidic residues of C13 position of steviol, and unmodified steviol glycosides.