mhurhangee/ep-ind-claims huggingface dataset:
A tissue preservation system, comprising: a tissue collector operatively connected to a tissue removal device; a vacuum generator operatively connected to one end of the tissue collector; wherein the tissue preservation system further comprises: a connector element (504, 522) operatively connected to another end of the tissue collector, upstream from the vacuum generator, the connector element (504, 522) having a body portion defined by first and second ends and a flow channel defined by a first diameter, an inlet port of the connector element (504, 522) intersecting the body portion between the first and second ends, wherein the first end is configured to be fluidly connected to the tissue removal device and wherein the second end is configured to be fluidly connected to the tissue collector; and wherein the inlet port is configured to deliver fluid from a fluid supply source into the connector element (504, 522); and characterized in that the inlet port is defined by an inner diameter that is smaller than an inner diameter of the flow channel of the body portion to meter fluid from the fluid supply source into the tissue collector. a tissue collector operatively connected to a tissue removal device; a vacuum generator operatively connected to one end of the tissue collector; wherein the tissue preservation system further comprises: a connector element (504, 522) operatively connected to another end of the tissue collector, upstream from the vacuum generator, the connector element (504, 522) having a body portion defined by first and second ends and a flow channel defined by a first diameter, an inlet port of the connector element (504, 522) intersecting the body portion between the first and second ends, wherein the first end is configured to be fluidly connected to the tissue removal device and wherein the second end is configured to be fluidly connected to the tissue collector; and wherein the inlet port is configured to deliver fluid from a fluid supply source into the connector element (504, 522); and characterized in that the inlet port is defined by an inner diameter that is smaller than an inner diameter of the flow channel of the body portion to meter fluid from the fluid supply source into the tissue collector.
A method for assessing dependence of laser machining on laser light intensity, the method comprising the step of: acquiring machining state information showing a machining state by the laser machining at a machining position on a workpiece; and characterized by the steps of: acquiring intensity distribution information showing intensity distribution of laser light at the machining position; and assessing dependence of the laser machining of the workpiece on the laser light intensity based on the machining state information and the intensity distribution information. acquiring intensity distribution information showing intensity distribution of laser light at the machining position; and assessing dependence of the laser machining of the workpiece on the laser light intensity based on the machining state information and the intensity distribution information.
Distribution box with an elongated opening in a front wall, which allows access to switch activating elements of switching devices arranged in the distribution box, wherein the distribution box comprises a transparent holding element attachable to the distribution box parallel to the longitudinal side of the opening, which holding element on its side facing the distribution box comprises devices for connecting with the distribution box and devices (10, 19) for mounting a labelling bracket, characterised in that the connecting devices are provided only on a longitudinal edge of the holding element facing away from the opening.
A peptide of less than 15 amino acids binding to an HLA antigen having cytotoxic T lymphocytes inducibility, wherein the peptide comprises an amino acid sequence selected from the group consisting of: (i) an amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 7, 8, 16, 25, 30 and 31; and (ii) an amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 7, 8, 16, 25, 30 and 31 in which 1 or 2 amino acid(s) are inserted, substituted, deleted or added. (i) an amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 7, 8, 16, 25, 30 and 31; and (ii) an amino acid sequence selected from the group consisting of SEQ ID NOs: 2, 7, 8, 16, 25, 30 and 31 in which 1 or 2 amino acid(s) are inserted, substituted, deleted or added.
A cooking device comprising a body; a cooking chamber which is disposed in the body and wherein the foodstuffs to be cooked are placed; a casing which is a box with an open front side, surrounding the cooking chamber; a steam generator which is provided on the body and which provides the generation of the steam to be sent onto the foodstuff during the cooking process; a water delivery line which is provided on the body so as to be connected to the mains line at one end and which enables the water to be delivered to the steam generator; and a discharge duct assembly disposed on the body and having at least one opening and at least one chimney duct which enables the process air in the cooking chamber during the cooking process to be moved by means of a chimney motor and discharged through the opening, the water delivery line which is positioned so as to be close to the chimney duct at at least one region so as to allow heat transfer between the former and the chimney duct characterized by a sensing member which is provided on the water delivery line and which detects the temperature of the water taken from the mains line, and a control unit which controls the operation of the chimney motor based on the data received from the sensing member.
A dart game apparatus, comprising: a throw line (210; 310; 902; 1001; 1202; 1301) configured to indicate a position, at which a dart is thrown; and a touch unit (195; 220; 320; 903; 1203) extended from the throw line (210; 310; 902; 1001; 1202; 1301) in an opposite direction of a dart target, characterized in that it further comprises a first camera configured to photograph at least a part of a dart game player (904; 1002; 1204; 1302), wherein said first camera starts photographing when the dart game player (904; 1002; 1204; 1302) touches said touch unit (195; 220; 320; 903; 1203), and in that when the dart game player (904; 1002; 1204; 1302) throws the dart in a state of touching the touch unit (195; 220; 320; 903; 1203) and based on the photographed image, it is authenticated that a dart game is justly performed. a throw line (210; 310; 902; 1001; 1202; 1301) configured to indicate a position, at which a dart is thrown; and a touch unit (195; 220; 320; 903; 1203) extended from the throw line (210; 310; 902; 1001; 1202; 1301) in an opposite direction of a dart target, characterized in that it further comprises a first camera configured to photograph at least a part of a dart game player (904; 1002; 1204; 1302), wherein said first camera starts photographing when the dart game player (904; 1002; 1204; 1302) touches said touch unit (195; 220; 320; 903; 1203), and in that when the dart game player (904; 1002; 1204; 1302) throws the dart in a state of touching the touch unit (195; 220; 320; 903; 1203) and based on the photographed image, it is authenticated that a dart game is justly performed.
A container for a consumable recipient product, the recipient product being a smokeless tobacco product, wherein said container contains a non-consumable donor product carrier which contains a donor product configured to emit a substance to impart a characteristic to a recipient product in the container, the donor product comprising a botanical substance, and the donor product carrier comprising a barrier layer, disposed between the donor product and the recipient product, through which the substance can travel.
A tantalum sputtering target, wherein, on a sputtering surface of the tantalum sputtering target, an orientation rate of a plane exceeds 70% and an orientation rate of a plane is 30% or less, wherein the orientation rate (%) of the plane is: {(measured intensity of plane/JCPDS intensity of plane)/∑(measured intensity of each respective,,,, and plane/JCPDS intensity of each respective,,,, and plane)} × 100; and the orientation rate (%) of the plane is: {(measured intensity of plane/JCPDS intensity of plane)/∑(measured intensity of each respective,,,, and plane/JCPDS intensity of each respective,,,, and plane)} × 100.
A method for treating a board of wood material, such as an HDF board, an MDF board, a plywood board, veneer, planks or boarding, comprising the steps of: providing a board of wood material, arranging a composition comprising a binder on a first main face of said board, arranging said board on a draining surface, heat-treating said board and the composition arranged thereon, and pressing the composition into said board. providing a board of wood material, arranging a composition comprising a binder on a first main face of said board, arranging said board on a draining surface, heat-treating said board and the composition arranged thereon, and pressing the composition into said board.
A method for setting a frequency-dependent gain for a hearing aid comprising a microphone which can be arranged on the outside and/or inside of a body of a hearing-impaired user for capturing ambient noise, a loudspeaker for outputting the ambient noise amplified on a frequency-basis, a signal-processing processor, a data memory and an energy storage, wherein the signal processing processor is configured to amplify the captured ambient noises so that they are audible to the hearing-impaired user of the hearing aid and to automatically re-adjust the gain in a frequency-dependent manner, the method comprising the following steps: - selecting a tone with a specific frequency (f1,..., fn); - supplying the tone via the loudspeaker; - capturing with the microphone an analysis noise, which comprises the ambient noise, if existent, and a reflection of an output noise being output via the loudspeaker; - extracting a reflection of the supplied tone from the captured analysis noise; - determining a reflection component (S1,..., Sn) for the specific frequency (f1,..., fn) of the tone; and - adjusting the gain in a frequency-specific manner on the basis of the so-determined reflection component; wherein in a first, non-recurrent step an initial reflection component curve (r initial) is determined for the audible spectrum in order to determine discrete points in the frequency spectrum which have associated tones which are recurrently supplied for the purpose of updating an instantaneous reflection component curve. - selecting a tone with a specific frequency (f1,..., fn); - supplying the tone via the loudspeaker; - capturing with the microphone an analysis noise, which comprises the ambient noise, if existent, and a reflection of an output noise being output via the loudspeaker; - extracting a reflection of the supplied tone from the captured analysis noise; - determining a reflection component (S1,..., Sn) for the specific frequency (f1,..., fn) of the tone; and - adjusting the gain in a frequency-specific manner on the basis of the so-determined reflection component;
A supporting mechanism that supports a first exhaust treatment device and a second exhaust treatment device for treating exhaust gas from an engine, the mechanism comprising: a sub-bracket for supporting the first exhaust treatment device and the second exhaust treatment device; a base bracket supporting the sub-bracket; a first supporting member supporting one side of the base bracket; and a second supporting member supporting the other side of the base bracket; wherein the base bracket includes: a first connecting part joined to the first supporting member and a second connecting part joined to the second supporting member; wherein the sub-bracket is separated from the first connecting part and the second connecting part, characterized in that the base bracket further includes: a first pipe member and a second pipe member installed between the first connecting part and the second connecting part, wherein the sub-bracket is attached to the first pipe member and the second pipe member, and wherein the sub-bracket extends in the lateral direction of the first pipe member and the second pipe member therefrom. a sub-bracket for supporting the first exhaust treatment device and the second exhaust treatment device; a base bracket supporting the sub-bracket; a first supporting member supporting one side of the base bracket; and a second supporting member supporting the other side of the base bracket; a first connecting part joined to the first supporting member and a second connecting part joined to the second supporting member; a first pipe member and a second pipe member installed between the first connecting part and the second connecting part, wherein the sub-bracket is attached to the first pipe member and the second pipe member, and wherein the sub-bracket extends in the lateral direction of the first pipe member and the second pipe member therefrom.
An electric oven assembly comprising: an oven cavity having walls and a door, insulation material surrounding the cavity one or more electric heating elements that are operable to heat the inside the cavity; a vent which is in communication with the inside of the cavity through which steam can pass that has been produced inside the cavity at times when the door is closed; and a closure that controls the passage of steam through the vent, when closed the closure means sealing off the vent to prevent the release of hot air and steam from the cavity and when open the closure means permitting the escape of hot air and steam from the cavity through the vent characterised in that the closure means is adapted to open automatically when the temperature inside the cavity or the vent reaches a first predefined temperature and to close automatically when the temperature drops to a second predefined temperature. an oven cavity having walls and a door, insulation material surrounding the cavity one or more electric heating elements that are operable to heat the inside the cavity; a vent which is in communication with the inside of the cavity through which steam can pass that has been produced inside the cavity at times when the door is closed; and a closure that controls the passage of steam through the vent, when closed the closure means sealing off the vent to prevent the release of hot air and steam from the cavity and when open the closure means permitting the escape of hot air and steam from the cavity through the vent characterised in that the closure means is adapted to open automatically when the temperature inside the cavity or the vent reaches a first predefined temperature and to close automatically when the temperature drops to a second predefined temperature.
A biodegradable multi-layered zaleplon gastroretentive dosage form comprising a first dosage of zaleplon for controlled release and optionally a second dosage of zaleplon for immediate release in the stomach and gastrointestinal tract of a subject, wherein the gastroretentive dosage form is compacted or folded into a capsule which disintegrates rapidly upon contact with gastric juice, and wherein the gastroretentive dosage form, upon disintegration of the capsule, unfolds rapidly upon contact with the gastric juice.
A radio station for use in a radio communication network and capable of transmitting and receiving user data including downlink user data and uplink user data to and from a plurality of mobile stations via an air interface, the radio station comprising: a first part; and at least one second part arranged to be physically separated from the first part, and connected to the first part via a transmission line in order to be able to communicate with the first part, wherein the first part comprises first bearer termination means capable of terminating at least one bearer between an upper network and the radio station, the second part comprises digital physical layer means for performing digital physical layer signal processing, the digital physical layer signal processing including channel coding for transmitting, to the air interface, the downlink user data pertaining to a first mobile station connected to the second part among the plurality of mobile stations, and channel decoding for restoring the uplink user data pertaining to the first mobile station from a signal received from the air interface, the first part further comprises first scheduling means for performing dynamic scheduling to allocate a radio resource to the plurality of mobile stations, and the second part further comprises second scheduling means for operating in a cooperative manner with the first scheduling means for the dynamic scheduling. a first part; and at least one second part arranged to be physically separated from the first part, and connected to the first part via a transmission line in order to be able to communicate with the first part, wherein the first part comprises first bearer termination means capable of terminating at least one bearer between an upper network and the radio station, the second part comprises digital physical layer means for performing digital physical layer signal processing, the digital physical layer signal processing including channel coding for transmitting, to the air interface, the downlink user data pertaining to a first mobile station connected to the second part among the plurality of mobile stations, and channel decoding for restoring the uplink user data pertaining to the first mobile station from a signal received from the air interface, the first part further comprises first scheduling means for performing dynamic scheduling to allocate a radio resource to the plurality of mobile stations, and the second part further comprises second scheduling means for operating in a cooperative manner with the first scheduling means for the dynamic scheduling.
A method of measuring coagulation response in a blood sample, comprising the steps of: a. placing a sample droplet of blood between and in contact with a first surface and a second surface of oppositely disposed glass-filled thermoplastic polymer members (122A, 122B), wherein the glass-filled thermoplastic polymer members are optically transparent; b. moving at least one member (122A, 122B) linearly with respect to the other member (122A, 122B) at a predetermined speed sufficient to activate platelets through exposure to shear forces; and c. optically detecting, via measurement of mechanical displacement, the interaction between the first and second surfaces resulting from changes in the viscosity of the sample fluid and binding to the member (122A, 122B) surfaces in order to measure coagulation response of the droplet of blood. a. placing a sample droplet of blood between and in contact with a first surface and a second surface of oppositely disposed glass-filled thermoplastic polymer members (122A, 122B), wherein the glass-filled thermoplastic polymer members are optically transparent; b. moving at least one member (122A, 122B) linearly with respect to the other member (122A, 122B) at a predetermined speed sufficient to activate platelets through exposure to shear forces; and c. optically detecting, via measurement of mechanical displacement, the interaction between the first and second surfaces resulting from changes in the viscosity of the sample fluid and binding to the member (122A, 122B) surfaces in order to measure coagulation response of the droplet of blood.
A wireless network-based positioning method, comprising: obtaining time information used for determining a current location of a to-be-positioned node, wherein the time information records times of arrival of a first sounding signal at at least three anchor nodes, and the first sounding signal is sent by the to-be-positioned node at the current location; determining time differences of arrival of the first sounding signal at the at least three anchor nodes according to recorded historical information locations and the time information, wherein the time differences of arrival of the first sounding signal at the at least three anchor nodes are differences between the times of arrival of the first sounding signal at the at least three anchor nodes, the recorded historical information locations of the at least three anchor nodes, a historical location at which the to-be-positioned node has sent a second sounding signal, and times of arrival of the second sounding signal at the at least three anchor nodes, and the second sounding signal is a sounding signal that is used for positioning and that is sent by the to-be-positioned node before the to-be-positioned node sends the first sounding signal; and determining the current location of the to-be-positioned node according to the locations of the at least three anchor nodes and the time differences of arrival of the first sounding signal at the at least three anchor nodes. obtaining time information used for determining a current location of a to-be-positioned node, wherein the time information records times of arrival of a first sounding signal at at least three anchor nodes, and the first sounding signal is sent by the to-be-positioned node at the current location; determining time differences of arrival of the first sounding signal at the at least three anchor nodes according to recorded historical information locations and the time information, wherein the time differences of arrival of the first sounding signal at the at least three anchor nodes are differences between the times of arrival of the first sounding signal at the at least three anchor nodes, the recorded historical information locations of the at least three anchor nodes, a historical location at which the to-be-positioned node has sent a second sounding signal, and times of arrival of the second sounding signal at the at least three anchor nodes, and the second sounding signal is a sounding signal that is used for positioning and that is sent by the to-be-positioned node before the to-be-positioned node sends the first sounding signal; and determining the current location of the to-be-positioned node according to the locations of the at least three anchor nodes and the time differences of arrival of the first sounding signal at the at least three anchor nodes.