mhurhangee/ep-ind-claims huggingface dataset:
A cryosurgical instrument (100, 200, 300) comprising: an external shaft (103, 203, 303) with a cryotip (108, 208, 308) at a distal end thereof; a cryogen supply tube (102, 202, 302) adapted to supply cryogen to the instrument (100, 200, 300; a heat exchanger (101, 201, 301) adapted to cool a portion of the external shaft (103, 203, 303) by directing the supplied cryogen (114, 214, 314), against an inner surface of the portion of the external shaft (103, 203, 303) and an inner surface of the tip (108, 208, 308) and to guide exhausted cryogen away from the tip (108, 208, 308); and a flow diverter (106, 206, 306) disposed between the cryogen supply tube (102, 202, 302) and the heat exchanger (101, 201, 301), the flow diverter (106, 206) including a first Y-configured passage (106a, 206a) with an inlet port (112, 212) at an upstream side of the diverter (106, 206), the first Y-configured passage(106a, 206a) being adapted to receive the supplied cryogen (114, 214) from the cryogen supply tube (102, 202) via the inlet port (112, 212) at the upstream side of the flow diverter (106, 206) and to divert the received cryogen (114, 214) to the heat exchanger (101, 201) in a downstream direction, wherein the portion of the external shaft (103, 203, 303) extends from the flow diverter (106, 206, 306) to the tip (108, 208, 308); and wherein the supplied cryogen directed against the inner surface of the tip (108, 208, 308) is a two-phase cryogen mixture, which contains a larger portion in a liquid phase. an external shaft (103, 203, 303) with a cryotip (108, 208, 308) at a distal end thereof; a cryogen supply tube (102, 202, 302) adapted to supply cryogen to the instrument (100, 200, 300; a heat exchanger (101, 201, 301) adapted to cool a portion of the external shaft (103, 203, 303) by directing the supplied cryogen (114, 214, 314), against an inner surface of the portion of the external shaft (103, 203, 303) and an inner surface of the tip (108, 208, 308) and to guide exhausted cryogen away from the tip (108, 208, 308); and a flow diverter (106, 206, 306) disposed between the cryogen supply tube (102, 202, 302) and the heat exchanger (101, 201, 301), the flow diverter (106, 206) including a first Y-configured passage (106a, 206a) with an inlet port (112, 212) at an upstream side of the diverter (106, 206), the first Y-configured passage(106a, 206a) being adapted to receive the supplied cryogen (114, 214) from the cryogen supply tube (102, 202) via the inlet port (112, 212) at the upstream side of the flow diverter (106, 206) and to divert the received cryogen (114, 214) to the heat exchanger (101, 201) in a downstream direction, wherein the portion of the external shaft (103, 203, 303) extends from the flow diverter (106, 206, 306) to the tip (108, 208, 308); and wherein the supplied cryogen directed against the inner surface of the tip (108, 208, 308) is a two-phase cryogen mixture, which contains a larger portion in a liquid phase.
A filter system for use in surgical settings inside the body (100, 200, 400) comprising a first tube (101, 201, 401); a second tube (102, 202, 402), the first tube and second tube movable relative to each other in at least a partially telescoping arrangement; a filter (112, 412, 412', 412"), comprising a foldable member, a first end of the filter supported by the first tube and a second end of the filter supported by the second tube, the foldable member movable by the movement of the first and second tubes between an inverted orientation defining a collapsed position when at least partially covered by the second tube, and a folded-over outwardly expanded orientation, defining an expanded position, when uncovered by the second tube; characterized in that the filter system further comprises a third over tube (103, 203, 403) for enveloping the first and second tubes, the first tube defining an inner tube and the second tube defining a mid tube, the third tube moveable so as to cover and uncover the filter, the first, second and third tubes moveable with respect to each other; the third tube enveloping the filter in a compressed and folded initial position, where a portion of the filter extends over the inner tube as the filter is packed and covered by the third over tube. a first tube (101, 201, 401); a second tube (102, 202, 402), the first tube and second tube movable relative to each other in at least a partially telescoping arrangement; a filter (112, 412, 412', 412"), comprising a foldable member, a first end of the filter supported by the first tube and a second end of the filter supported by the second tube, the foldable member movable by the movement of the first and second tubes between an inverted orientation defining a collapsed position when at least partially covered by the second tube, and a folded-over outwardly expanded orientation, defining an expanded position, when uncovered by the second tube; characterized in that the filter system further comprises a third over tube (103, 203, 403) for enveloping the first and second tubes, the first tube defining an inner tube and the second tube defining a mid tube, the third tube moveable so as to cover and uncover the filter, the first, second and third tubes moveable with respect to each other; the third tube enveloping the filter in a compressed and folded initial position, where a portion of the filter extends over the inner tube as the filter is packed and covered by the third over tube.
A terminal characterized by comprising: a control section that, when an uplink shared channel is used to transmit a delivery acknowledgement signal, HARQ-ACK, and an uplink data, UL-SCH, is configured to control a mapping of the delivery acknowledgement signal based on whether bundling is applied to the delivery acknowledgement signal and based on a number of bits of the delivery acknowledgement signal; and a transmission section that is configured to transmit the delivery acknowledgement signal and the uplink data, wherein, when the bundling is applied, if the number of bits of the delivery acknowledgement signal after the bundling is less than or equal to 2 bits, the control section is configured to map the delivery acknowledgement signal to a first resource for puncturing, and if the number of bits of the delivery acknowledgement signal after the bundling exceeds 2 bits, the control section is configured to map the delivery acknowledgement signal to a second resource for rate matching. a control section that, when an uplink shared channel is used to transmit a delivery acknowledgement signal, HARQ-ACK, and an uplink data, UL-SCH, is configured to control a mapping of the delivery acknowledgement signal based on whether bundling is applied to the delivery acknowledgement signal and based on a number of bits of the delivery acknowledgement signal; and a transmission section that is configured to transmit the delivery acknowledgement signal and the uplink data, wherein, when the bundling is applied, if the number of bits of the delivery acknowledgement signal after the bundling is less than or equal to 2 bits, the control section is configured to map the delivery acknowledgement signal to a first resource for puncturing, and if the number of bits of the delivery acknowledgement signal after the bundling exceeds 2 bits, the control section is configured to map the delivery acknowledgement signal to a second resource for rate matching.
A group communication method based on MBMS network architecture, wherein the method comprises: receiving, by a Multimedia Broadcast Multicast Service, MBMS, network device, a session start request message transmitted by a mobility management device in a MBMS network; judging, by the MBMS network device, whether the session start request message carries a group identity of a communication group to which a session requested by the session start request message relates; and determining, by the MBMS network device, that the session requested by the session start request message is a group communication session if the session start request message carries the group identity; otherwise, determining, by the MBMS network device, that the session is a MBMS session; when the session requested by the session start request message is the group communication session, forwarding, by the MBMS network device, the session start request message to a radio access network device so that the radio access network device is enabled to allocate an air interface identity for the session requested by the session start request message for group communication. receiving, by a Multimedia Broadcast Multicast Service, MBMS, network device, a session start request message transmitted by a mobility management device in a MBMS network; judging, by the MBMS network device, whether the session start request message carries a group identity of a communication group to which a session requested by the session start request message relates; and determining, by the MBMS network device, that the session requested by the session start request message is a group communication session if the session start request message carries the group identity; otherwise, determining, by the MBMS network device, that the session is a MBMS session; when the session requested by the session start request message is the group communication session, forwarding, by the MBMS network device, the session start request message to a radio access network device so that the radio access network device is enabled to allocate an air interface identity for the session requested by the session start request message for group communication.
A method for determining change in at least one of size and mass-to-charge ratio in an intracellular target protein using a surrogate for said protein, said surrogate comprising a fusion protein of at least 25% of the contiguous amino acids of said target protein and an enzyme donor, wherein said ED is a member of an enzyme fragment complementation pair that forms an active β galactosidase enzyme with the complementary fragment enzyme acceptor, wherein said method comprises: lysing a cell transformed with an expression construct of said fusion protein resulting in intracellular expression of said fusion protein; separating of said lysate by gel electrophoresis into bands where said fusion protein and modifications thereof comprising said ED are separated by at least one of size and mass-to-charge ratio; transferring said bands to a membrane; adding EA and substrate for said active enzyme to said membrane; and determining the presence of said fusion protein and modifications thereof in said bands by means of said ED in said bands binding to said EA in the presence of said substrate, and further determining changes in said intracellular target protein wherein said determining of changes is by said separating by gel electrophoresis. lysing a cell transformed with an expression construct of said fusion protein resulting in intracellular expression of said fusion protein; separating of said lysate by gel electrophoresis into bands where said fusion protein and modifications thereof comprising said ED are separated by at least one of size and mass-to-charge ratio; transferring said bands to a membrane; adding EA and substrate for said active enzyme to said membrane; and determining the presence of said fusion protein and modifications thereof in said bands by means of said ED in said bands binding to said EA in the presence of said substrate, and further determining changes in said intracellular target protein wherein said determining of changes is by said separating by gel electrophoresis.
A standardised wall mounting for a control unit of system components in an aircraft cabin designed as a base plate, wherein the control unit comprises a plug and a hook eye, the wall mounting comprising: a fastening unit designed for receiving the hook eye of the control unit, and at least one plug unit into which the plug of the control unit fits, wherein the fastening unit is a centering hook; wherein the centering hook is designed for guiding the control unit during an installation movement of the control unit on the wall mounting; and wherein the plug unit is designed for producing a plug connection between the control unit and the wall mounting during the installation movement of the control unit on the wall mounting. a fastening unit designed for receiving the hook eye of the control unit, and at least one plug unit into which the plug of the control unit fits, wherein the fastening unit is a centering hook; wherein the centering hook is designed for guiding the control unit during an installation movement of the control unit on the wall mounting; and wherein the plug unit is designed for producing a plug connection between the control unit and the wall mounting during the installation movement of the control unit on the wall mounting.
Safety coupling comprising a driving coupling member, a driven coupling member, a torque sensor and an engagement mechanism to provide a connection of the coupling members (11, 20), wherein the transferrable torque is adjustable to a predefined torque value by the engagement mechanism wherein the torque sensor comprising a torque sensor element, wherein the torque sensor element is arranged within a recess of one coupling member (11, 20), preferable the driven coupling member and comprising a rotating transmitter/receiver arranged on an outer surface of the safety coupling characterized by comprising a non-rotating transmitter/receiver guided by an rotating guidance of one of the coupling members (11, 20) to provide a predefined distance between the rotating transmitter/receiver and the non-rotating transmitter/receiver.
An arrangement for improving the performance of a safety-critical vehicle actuator powered directly or indirectly from a vehicle electrical system, characterized in that: the safety-critical vehicle actuator, upon activation thereof, is arranged to signal directly to an alternator of the vehicle to output a raised voltage for a pre-determined time period. the safety-critical vehicle actuator, upon activation thereof, is arranged to signal directly to an alternator of the vehicle to output a raised voltage for a pre-determined time period.
An electronic device (20; 30) comprising: a solid body, in particular including Silicon Carbide; a gate terminal, extending into the solid body; a conductive path, extending at a first side of the solid body, configured to be electrically coupeable to a generator of a biasing voltage (V GS) of said gate terminal; a protection element of a solid-state material, coupled to the gate terminal and to the conductive path, the protection element forming an electrical connection between the gate terminal and the conductive path, and being configured to go from the solid state to a melted or gaseous state, interrupting said electrical connection, in response to a leakage current (i SC) through said protection element greater than a critical threshold, characterized in that it further comprises a buried cavity in the solid body accommodating, at least in part, said protection element. a solid body, in particular including Silicon Carbide; a gate terminal, extending into the solid body; a conductive path, extending at a first side of the solid body, configured to be electrically coupeable to a generator of a biasing voltage (V GS) of said gate terminal; a protection element of a solid-state material, coupled to the gate terminal and to the conductive path, the protection element forming an electrical connection between the gate terminal and the conductive path, and being configured to go from the solid state to a melted or gaseous state, interrupting said electrical connection, in response to a leakage current (i SC) through said protection element greater than a critical threshold, characterized in that it further comprises a buried cavity in the solid body accommodating, at least in part, said protection element.
A system for interfacing a simulation (320, 612, 814, 916, 1016, 1118) with an industrial control program (306, 604, 904, 1004, 1104), comprising: a configuration retrieval component configured to retrieve an I/O module configuration (406a-c, 502, 606), defined in the industrial control program, that defines one or more available I/O points of the industrial control program; an I/O connection pool (616, 706, 802) configured to retrieve, from a directory service, a generic I/O module profile corresponding to an I/O module being associated with an I/O module instance in a controller configured to execute the industrial control program, the I/O module being represented by the I/O module configuration, and to customize the generic I/O module profile using the I/O module configuration to yield an available I/O point list; and a simulated I/O kernel (318, 810, 918, 1018, 1120) configured to exchange simulation I/O data between a simulated I/O point in an automation system simulation (320, 612, 814, 916, 1016, 1118) and a corresponding I/O module instance (312, 408a-c, 908, 1109, 1108) corresponding to the I/O module configuration and residing in the industrial control program, in accordance with a data linkage between the simulated I/O point and the I/O module instance based on the available I/O point list, wherein the simulated I/O kernel is adapted to leverage the I/O connection pool to exchange simulated I/O data with the I/O module instance in the controller. a configuration retrieval component configured to retrieve an I/O module configuration (406a-c, 502, 606), defined in the industrial control program, that defines one or more available I/O points of the industrial control program; an I/O connection pool (616, 706, 802) configured to retrieve, from a directory service, a generic I/O module profile corresponding to an I/O module being associated with an I/O module instance in a controller configured to execute the industrial control program, the I/O module being represented by the I/O module configuration, and to customize the generic I/O module profile using the I/O module configuration to yield an available I/O point list; and a simulated I/O kernel (318, 810, 918, 1018, 1120) configured to exchange simulation I/O data between a simulated I/O point in an automation system simulation (320, 612, 814, 916, 1016, 1118) and a corresponding I/O module instance (312, 408a-c, 908, 1109, 1108) corresponding to the I/O module configuration and residing in the industrial control program, in accordance with a data linkage between the simulated I/O point and the I/O module instance based on the available I/O point list, wherein the simulated I/O kernel is adapted to leverage the I/O connection pool to exchange simulated I/O data with the I/O module instance in the controller.
A method for providing weighing results, wherein weight of a load is measured with a weighing sensor and weighing result of the measurement is presented, and for presenting weighing results the measurement result data is processed to apply a increment between non-equal values of weighing result presentations, characterized by - measuring with an environmental sensor acceleration, temperature, electromagnetic radiation, air pressure, humidity, wind speed, wind direction, an angle of inclination, and/or speed or acceleration of load to assess environmental condition of the weighing system, - assessing actual reliability of a weighing result on the basis of the measured environmental condition, - determining said increment value of presentation on the basis of said assessment, and - processing the measurement result data to apply the determined increment value of presentation in presenting the measured weighing result. - measuring with an environmental sensor acceleration, temperature, electromagnetic radiation, air pressure, humidity, wind speed, wind direction, an angle of inclination, and/or speed or acceleration of load to assess environmental condition of the weighing system, - assessing actual reliability of a weighing result on the basis of the measured environmental condition, - determining said increment value of presentation on the basis of said assessment, and - processing the measurement result data to apply the determined increment value of presentation in presenting the measured weighing result.
Oil-injected multistage compressor device comprising at least one low-pressure compressor element with a gas inlet for gas to be compressed and a gas outlet for low-pressure compressed gas and a high-pressure stage compressor element with a gas inlet for low-pressure compressed gas and a gas outlet for high-pressure compressed gas, whereby the gas outlet of the low-pressure stage compressor element is connected to the inlet of the high-pressure stage compressor element via a conduit, characterized in that in the aforementioned conduit between the low-pressure stage compressor element and the high-pressure stage compressor element a regulatable intercooler is provided that is configured in such a way that the temperature at the gas inlet of the high-pressure stage compressor element can be regulated so that it is above the dew point, in that the intercooler comprises a regulatable air cooler and/or a regulatable water cooler, and in that the intercooler is configured in such a way that the temperature of the air or the water can be changed by using a bypass conduit and/or by screening off part of the intercooler.
An ion guide comprising: a plurality of electrodes comprising two planar arrays of electrodes; a first device arranged and adapted to apply a RF voltage to at least some of said electrodes in order to form, in use, a pseudo-potential well which acts to confine ions in a first (y) direction within said ion guide; a second device arranged and adapted to apply a DC voltage to at least some of said electrodes in order to form, in use, a quadratic DC potential well which acts to confine ions in a second (z) direction within said ion guide; and a third device arranged and adapted to cause ions having desired or undesired mass to charge ratios to be mass to charge ratio selectively ejected from said ion guide in said second (z) direction; wherein ions are arranged to enter said ion guide through either open end (y-z plane) along a third (x) direction; and wherein the electrodes of said arrays of electrodes are arranged parallel to said second (z) direction or parallel to said third (x) direction, and wherein said first (y) direction is substantially orthogonal to said second (z) direction and said third (x) direction. a plurality of electrodes comprising two planar arrays of electrodes; a first device arranged and adapted to apply a RF voltage to at least some of said electrodes in order to form, in use, a pseudo-potential well which acts to confine ions in a first (y) direction within said ion guide; a second device arranged and adapted to apply a DC voltage to at least some of said electrodes in order to form, in use, a quadratic DC potential well which acts to confine ions in a second (z) direction within said ion guide; and a third device arranged and adapted to cause ions having desired or undesired mass to charge ratios to be mass to charge ratio selectively ejected from said ion guide in said second (z) direction; wherein ions are arranged to enter said ion guide through either open end (y-z plane) along a third (x) direction; and wherein the electrodes of said arrays of electrodes are arranged parallel to said second (z) direction or parallel to said third (x) direction, and wherein said first (y) direction is substantially orthogonal to said second (z) direction and said third (x) direction.