mhurhangee/patent-ind-claim-en huggingface dataset:
An adjuvant composition comprising: (1-i) a human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (1-ii) a human Granzyme A having an amino acid sequence having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3; or a vector comprising a nucleic acid encoding (2-i) human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (2-ii) a human Granzyme A having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3, wherein the adjuvant composition optionally comprises an immunogenic substance, preferably a peptidic immunogenic substance, or wherein, when the immunogenic substance is a peptidic immunogenic substance, the adjuvant composition comprises a vector comprising a nucleic acid encoding the peptidic immunogenic substance, for use in a method of activating antigen-specific immunity against an immunogenic substance in a subject, comprising administering the human granzyme A of (1-i) or (1-ii) or the vector of ; and optionally the immunogenic substance of or the vector of to the subject. (1-i) a human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (1-ii) a human Granzyme A having an amino acid sequence having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3; or a vector comprising a nucleic acid encoding (2-i) human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3 or (2-ii) a human Granzyme A having a 95% or more sequence homology with human Granzyme A having the amino acid sequence set forth in SEQ ID NO: 3, wherein the adjuvant composition optionally comprises an immunogenic substance, preferably a peptidic immunogenic substance, or wherein, when the immunogenic substance is a peptidic immunogenic substance, the adjuvant composition comprises a vector comprising a nucleic acid encoding the peptidic immunogenic substance,
A drive system suitable to be part of a robot or a drone (R, U), the drive system comprising an actuator including at least an electric motor (11; 211) that has a rotating shaft (11a; 213); an output shaft driven by the electric motor different from the rotating shaft (11a; 213); the drive system further comprising: a microphone (41; 241); and a sound generator (42A, 42B; 242) emitting a sound in response to a signal derived from sound caught by the microphone (41; 241), wherein the microphone (41; 241) is attached to the actuator and arranged in a manner so as to pick up sounds that occur as a result of movement of movable parts including the rotating shaft (11a; 213) and the output shaft , and optionally a reduction mechanism (A) which reduces the rotating speed of the electric motor and transmits the power to such output shaft . a microphone (41; 241); and a sound generator (42A, 42B; 242) emitting a sound in response to a signal derived from sound caught by the microphone (41; 241), wherein the microphone (41; 241) is attached to the actuator and arranged in a manner so as to pick up sounds that occur as a result of movement of movable parts including the rotating shaft (11a; 213) and the output shaft , and optionally a reduction mechanism (A) which reduces the rotating speed of the electric motor and transmits the power to such output shaft .
A slot die coater , comprising: a lower die block and an upper die block ; a shim plate interposed between the lower die block and the upper die block to form a slot therebetween; and a manifold disposed in the lower die block , the manifold being configured to accommodate a coating solution , wherein the coating solution is configured to be delivered and coated on a substrate through an exit port in communication with the slot, and wherein the shim plate includes a plate-shaped member having an open portion which is cut in at least an area to determine a coating width of a coating layer coated on the substrate , and a structure protruding from the plate-shaped member and inserted into the manifold , characterized in that the structure is a branch structure for splitting the coating solution coming out of an injection port at a bottom of the manifold into two branches. a lower die block and an upper die block ; a shim plate interposed between the lower die block and the upper die block to form a slot therebetween; and a manifold disposed in the lower die block , the manifold being configured to accommodate a coating solution , wherein the coating solution is configured to be delivered and coated on a substrate through an exit port in communication with the slot, and wherein the shim plate includes a plate-shaped member having an open portion which is cut in at least an area to determine a coating width of a coating layer coated on the substrate , and a structure protruding from the plate-shaped member and inserted into the manifold , characterized in that the structure is a branch structure for splitting the coating solution coming out of an injection port at a bottom of the manifold into two branches.
A cooking oven including at least one pair of guide rails for receiving and supporting a baking tray or cooking grid in an oven cavity of said cooking oven, wherein: - the guide rail includes one upper rod and one lower rod , - the upper rod and the lower rod are arranged parallel to each other, - the guide rail includes two holding elements interconnecting the upper rod and the lower rod , and - the holding elements include in each case at least one recess engageable or engaged with a fastening element attached at a side wall of the oven cavity , so that - the guide rail is attachable at and removable from the fastening elements at the side wall of the oven cavity , wherein - the upper rod and the lower rod are arrangeable horizontally at the side wall of the oven cavity , and wherein - a lateral border of the baking tray or cooking grid is arrangeable between the upper rod and the lower rod , characterised in that the fastening elements are detachably or permanently attached as a matrix at each of the opposite side walls of the oven cavity , wherein the fastening elements are arranged at different levels of the oven cavity , while at least two fastening elements are arranged at each level of one side wall . - the guide rail includes one upper rod and one lower rod , - the upper rod and the lower rod are arranged parallel to each other, - the guide rail includes two holding elements interconnecting the upper rod and the lower rod , and - the holding elements include in each case at least one recess engageable or engaged with a fastening element attached at a side wall of the oven cavity , so that - the guide rail is attachable at and removable from the fastening elements at the side wall of the oven cavity , wherein - the upper rod and the lower rod are arrangeable horizontally at the side wall of the oven cavity , and wherein - a lateral border of the baking tray or cooking grid is arrangeable between the upper rod and the lower rod ,
A system, comprising: a master speaker having a detection set ; a slave speaker having a plurality of light sources; a processor including computer-readable instructions stored in non-transitory memory for: flashing the plurality of light sources one at a time; detecting light points by means of the detection set , the detected light points resulting in a detected pattern of light points; comparing the detected pattern of light points to a database of patterns of light points; determining a relative angle and distance between the master speaker and the slave speaker based on the comparison; and calculating a baseline distance parameter using the determined relative angle and distance. a master speaker having a detection set ; a slave speaker having a plurality of light sources; a processor including computer-readable instructions stored in non-transitory memory for: flashing the plurality of light sources one at a time; detecting light points by means of the detection set , the detected light points resulting in a detected pattern of light points; comparing the detected pattern of light points to a database of patterns of light points; determining a relative angle and distance between the master speaker and the slave speaker based on the comparison; and calculating a baseline distance parameter using the determined relative angle and distance. flashing the plurality of light sources one at a time; detecting light points by means of the detection set , the detected light points resulting in a detected pattern of light points; comparing the detected pattern of light points to a database of patterns of light points; determining a relative angle and distance between the master speaker and the slave speaker based on the comparison; and calculating a baseline distance parameter using the determined relative angle and distance.
An ultrasound diagnostic apparatus comprising: an image generation unit configured to generate an ultrasound image obtained by imaging a subject by transmitting and receiving ultrasound beams using an ultrasound probe ; and a bladder extraction unit configured to extract a first region including a bladder region from the ultrasound image; characterized by : a gender determination unit configured to determine a gender of the subject based on a shape of the bladder region in a case where a size of the first region extracted by the bladder extraction unit is larger than a predetermined size threshold value; and an observation support unit configured to support an observation of a next observation site which is determined according to the gender of the subject determined by the gender determination unit . an image generation unit configured to generate an ultrasound image obtained by imaging a subject by transmitting and receiving ultrasound beams using an ultrasound probe ; and a bladder extraction unit configured to extract a first region including a bladder region from the ultrasound image; characterized by : a gender determination unit configured to determine a gender of the subject based on a shape of the bladder region in a case where a size of the first region extracted by the bladder extraction unit is larger than a predetermined size threshold value; and an observation support unit configured to support an observation of a next observation site which is determined according to the gender of the subject determined by the gender determination unit . a gender determination unit configured to determine a gender of the subject based on a shape of the bladder region in a case where a size of the first region extracted by the bladder extraction unit is larger than a predetermined size threshold value; and an observation support unit configured to support an observation of a next observation site which is determined according to the gender of the subject determined by the gender determination unit .
Sensor positioning device comprising a holding assembly , which has a sensor mount , a fastening element and a spring element , wherein the sensor mount has a cavity for receiving a sensor , in particular an optical sensor , wherein the sensor mount is mounted to be displaceable relative to the fastening element along a compensation axis and wherein the spring element is arranged between the fastening element and sensor mount and interacts with the latter, in order to form a restoring force when the sensor mount is displaced relative to the fastening element along the compensation axis, wherein the sensor positioning device has a measuring nozzle with a stop , wherein the measuring nozzle is configured for arrangement on a process container , wherein the measuring nozzle is configured for releasable arrangement on the holding assembly , wherein the sensor positioning device is configured such that when the measuring nozzle is arranged on the holding assembly , the sensor mount can be moved relative to the fastening element along the compensation axis, characterized in that a pressing force of the sensor mount on the stop of the measuring nozzle is created by means of the spring element . a holding assembly , which has a sensor mount , a fastening element and a spring element , wherein the sensor mount has a cavity for receiving a sensor , in particular an optical sensor , wherein the sensor mount is mounted to be displaceable relative to the fastening element along a compensation axis and wherein the spring element is arranged between the fastening element and sensor mount and interacts with the latter, in order to form a restoring force when the sensor mount is displaced relative to the fastening element along the compensation axis, wherein the sensor positioning device has a measuring nozzle with a stop , wherein the measuring nozzle is configured for arrangement on a process container , wherein the measuring nozzle is configured for releasable arrangement on the holding assembly , wherein the sensor positioning device is configured such that when the measuring nozzle is arranged on the holding assembly , the sensor mount can be moved relative to the fastening element along the compensation axis, characterized in that a pressing force of the sensor mount on the stop of the measuring nozzle is created by means of the spring element .
A method, comprising: receiving , by a network device, network traffic, wherein the network traffic is associated with a session associated with a network, wherein the session is associated with an application protocol; determining , by the network device, an application path associated with the network traffic; identifying, by the network device and based on parsing one or more communication protocol elements and one or more application protocol elements from the application path, the application protocol and a communication protocol for the session; performing , by the network device, a lookup operation associated with the application path to identify a policy information associated with the application path; determining , by the network device and based on the lookup operation, the communication protocol and the application protocol, whether the network traffic can be communicated via the network; and enabling , by the network device, when the network traffic is determined to be able to be communicated via the network, communication of the network traffic via the network, or preventing , by the network device, when the network traffic is determined to not be able to be communicated via the network, communication of the network traffic via the network. receiving , by a network device, network traffic, wherein the network traffic is associated with a session associated with a network, wherein the session is associated with an application protocol; determining , by the network device, an application path associated with the network traffic; identifying, by the network device and based on parsing one or more communication protocol elements and one or more application protocol elements from the application path, the application protocol and a communication protocol for the session; performing , by the network device, a lookup operation associated with the application path to identify a policy information associated with the application path; determining , by the network device and based on the lookup operation, the communication protocol and the application protocol, whether the network traffic can be communicated via the network; and enabling , by the network device, when the network traffic is determined to be able to be communicated via the network, communication of the network traffic via the network, or preventing , by the network device, when the network traffic is determined to not be able to be communicated via the network, communication of the network traffic via the network.
A method for assisting a position determination of a user equipment, UE communicating over a shared communication medium in unlicensed spectrum , comprising: Measuring , by the UE at a first positioning reference signal, PRS, measurement time during a first positioning occasion, a first PRS from a first evolved Node B, eNB (110B for a first secondary cell of a plurality of secondary cells, wherein the first eNB transmits the first PRS on the shared communication medium, and wherein the first PRS is configured according to a PRS configuration; Measuring , by the UE at a second PRS measurement time during a second positioning occasion, a second PRS from a second eNB for a second secondary cell of the plurality of secondary cells, wherein the second eNB transmits the second PRS on the shared communication medium, and wherein the second PRS is configured according to the PRS configuration; and Reporting , by the UE , the measurement of the first PRS, the measurement of the second PRS, the first PRS measurement time, and the second PRS measurement time to a location server . Measuring , by the UE at a first positioning reference signal, PRS, measurement time during a first positioning occasion, a first PRS from a first evolved Node B, eNB (110B for a first secondary cell of a plurality of secondary cells, wherein the first eNB transmits the first PRS on the shared communication medium, and wherein the first PRS is configured according to a PRS configuration; Measuring , by the UE at a second PRS measurement time during a second positioning occasion, a second PRS from a second eNB for a second secondary cell of the plurality of secondary cells, wherein the second eNB transmits the second PRS on the shared communication medium, and wherein the second PRS is configured according to the PRS configuration; and Reporting , by the UE , the measurement of the first PRS, the measurement of the second PRS, the first PRS measurement time, and the second PRS measurement time to a location server .
A polyaxial pedicle screw comprising: a bone screw member including a head having a threaded shaft extending from the head, the head including a first portion and a second portion ; a housing positionable on the head of the bone screw member , the housing having a distal opening , characterized in that the first head portion is configured and dimensioned to pass through the housing distal opening and the second head portion is configured and dimensioned not to pass through the housing distal opening , wherein the first head portion enables the head to fit through an opening defined in the housing from a distal end of the housing and the second head portion is configured to maintain the head of the bone screw member within the housing once inserted, wherein the housing further defines a collar extending from the distal end of the housing and defining a cut out section , whereby the bone screw member assumes an insertion position with a neck of the screw member disposed in the cut out section with the first head portion aligned with the housing distal opening. a bone screw member including a head having a threaded shaft extending from the head, the head including a first portion and a second portion ; a housing positionable on the head of the bone screw member , the housing having a distal opening , characterized in that the first head portion is configured and dimensioned to pass through the housing distal opening and the second head portion is configured and dimensioned not to pass through the housing distal opening , wherein the first head portion enables the head to fit through an opening defined in the housing from a distal end of the housing and the second head portion is configured to maintain the head of the bone screw member within the housing once inserted, wherein the housing further defines a collar extending from the distal end of the housing and defining a cut out section , whereby the bone screw member assumes an insertion position with a neck of the screw member disposed in the cut out section with the first head portion aligned with the housing distal opening.
A method for eliminating nonlinear effects applied to a transmitter, comprising: setting signals to be transmitted and redundant signals where the redundant signals are symmetrical to the signals to be transmitted about polarization Y axis; and respectively executing dispersion pre-compensation on the signals to be transmitted and the redundant signals after the setting is completed, and executing signal modulation after the dispersion pre-compensation is completed, setting signals to be transmitted and redundant signals where the redundant signals are symmetrical to the signals to be transmitted about polarization Y axis; and respectively executing dispersion pre-compensation on the signals to be transmitted and the redundant signals after the setting is completed, and executing signal modulation after the dispersion pre-compensation is completed,
Method for producing plastic components for a vehicle, wherein the plastic components are at least partially painted in a painting step (S1) and then connected to further components on the non-painted surfaces, wherein a region , which is used for connection to the further components, is freed of contaminations by a material removal method using laser light, and wherein the painting step (S1) is followed by a machining step (S2) in which punching and/or boring is combined with laser ablation, wherein the plastic component is kept upright for the machining step (S2).
Lead-in insulating device that is adapted to be placed between an inner part and an outer part of high-voltage electrical equipment , where said insulating device comprises: - a body of insulating material and a conductor internally going through said body of insulating material, the body of insulating material comprising a first end intended for being located in the inner part of the high-voltage electrical equipment , and a second end intended for being located in the outer part of the high-voltage electrical equipment , and - at least two electric shields arranged around the conductor and encapsulated in the same body of insulating material, wherein a first electric shield is grounded in order to make the electric field uniform, and a second electric shield is a capacitive voltage sensing element for detecting the presence/absence of voltage and measuring the voltage; characterized in that the first electric shield is located in a position located before the second electric shield , from the side of the second end of the insulating device ; whereas the second electric shield is located axially displaced towards the first end of the insulating device along the conductor with respect to the first electric shield , wherein the body of insulating material comprises a central part intended for being located in the outer part of the high-voltage electrical equipment , the outer surface of which comprises grounded conducting means , and wherein the central part further comprises at least one current measurement element mounted on its outer surface. - a body of insulating material and a conductor internally going through said body of insulating material, the body of insulating material comprising a first end intended for being located in the inner part of the high-voltage electrical equipment , and a second end intended for being located in the outer part of the high-voltage electrical equipment , and - at least two electric shields arranged around the conductor and encapsulated in the same body of insulating material, wherein a first electric shield is grounded in order to make the electric field uniform, and a second electric shield is a capacitive voltage sensing element for detecting the presence/absence of voltage and measuring the voltage; characterized in that the first electric shield is located in a position located before the second electric shield , from the side of the second end of the insulating device ; whereas the second electric shield is located axially displaced towards the first end of the insulating device along the conductor with respect to the first electric shield , wherein the body of insulating material comprises a central part intended for being located in the outer part of the high-voltage electrical equipment , the outer surface of which comprises grounded conducting means , and wherein the central part further comprises at least one current measurement element mounted on its outer surface.