mhurhangee/ep-ind-claims huggingface dataset:
A mechanical seal comprising a mating ring as a sliding member fixed to a rotation axis, a cartilage fixed to a housing, and a seal ring attached to said cartilage for sliding with respect to said mating ring; said cartilage comprises an outer peripheral portion fixed to said housing, an inner peripheral portion placed around said rotation axis and provided with said seal ring, and a back portion perpendicular to the direction of said rotation axis connecting said outer peripheral portion and said inner peripheral portion characterized in that: a bending portion bending in the axial direction of said rotation axis, is formed on said back portion of said cartilage in a ring shape taking said rotation axis as a center; said mechanical seal further comprising a bellows fixed to said inner peripheral portion and a coiled wave spring contacted on said back portion, wherein said bellows and said coiled wave spring are arranged in said cartilage; a sliding face of said seal ring is pressed against said mating ring by the biasing force in the axial direction due to said bellows and said coiled wave spring; and said bending portion is formed on said back portion radially outside of said coiled wave spring and on a flat area of said back portion where no mechanical member is installed.
A light hardening device for hardening of dental materials, comprising a handpiece and a base station, the handpiece having a light source, a light guide rod, which especially is exchangeably and detachably fastened to the handpiece, and at least one sensor, which is located In the handpiece, the light hardening device further comprising a mirror, which is provided on the handpiece of the light hardening device, having a predetermined reflection parameter with a reflection value of more than 90%, and a control device with at least one hardening program for polymerizing the dental material and a calibration program, the calibration program being automatically initiated or being able to be initiated by user Intervention when the light-hardening device, with the light-emitting end of the light guide rod, is directed onto the mirror, characterized in that that the mirror is pivotably mounted as a measuring mirror on a glare shield which glare shield is fastened to the light-emitting end of the light guide rod.
A method of diagnosing breast cancer in a subject, comprising a) determining the methylation status of at least one methylation marker selected from the group consisting of HYAL2, MGRN1, RPTOR, SLC22A18, FUT7, RAPSN, S100P and DYRK4, and b) determining the amount of the miRNA markers miR-652, miR-801, miR-376c, miR-376a, miR-127, miR-409 and miR-148b, in a subject, wherein the decreased methylation status of the at least one methylation marker and the presence of the miRNAs is indicative of the risk of the subject to suffer of BC. a) determining the methylation status of at least one methylation marker selected from the group consisting of HYAL2, MGRN1, RPTOR, SLC22A18, FUT7, RAPSN, S100P and DYRK4, and b) determining the amount of the miRNA markers miR-652, miR-801, miR-376c, miR-376a, miR-127, miR-409 and miR-148b, in a subject,
A piezoelectric element comprising: a first electrode, a piezoelectric layer which is composed of a metal oxide containing lead, zirconium and titanium and which is formed above the first electrode, and a second electrode formed above the piezoelectric layer, characterized in that the piezoelectric layer has negatively charged Pb-O complex defects and positively charged Pb-O complex defects, the concentration of the negatively charged Pb-O complex defects being higher than the concentration of the positively charged Pb-O complex defects, wherein the negatively charged Pb-O complex defects are detected at an energy level of 1.3 eV, and the positively charged Pb-O complex defects are detected at an energy level of 2.0 eV by a thermally stimulated current technique. a first electrode, a piezoelectric layer which is composed of a metal oxide containing lead, zirconium and titanium and which is formed above the first electrode, and a second electrode formed above the piezoelectric layer, characterized in that the piezoelectric layer has negatively charged Pb-O complex defects and positively charged Pb-O complex defects, the concentration of the negatively charged Pb-O complex defects being higher than the concentration of the positively charged Pb-O complex defects, wherein the negatively charged Pb-O complex defects are detected at an energy level of 1.3 eV, and the positively charged Pb-O complex defects are detected at an energy level of 2.0 eV by a thermally stimulated current technique.
A surgical instrument, comprising: a handle; a shaft comprising a longitudinal shaft axis; an end effector configured to perform a tissue-treating function, wherein said end effector comprises: an end effector frame comprising a longitudinal end effector axis; and a jaw rotatably coupled to said end effector frame; an actuator configured to actuate said tissue-treating function; a rotation joint rotatably connecting said end effector to said shaft; an electric motor operably coupled to said end effector frame, wherein said electric motor is configured to rotate said end effector about said longitudinal end effector axis between a first end effector orientation and a second end effector orientation; a processor configured to evaluate the orientation of said end effector; and a display in communication with said processor, characterized in that said display is configured to: display information regarding said tissue-treating function in a first display orientation when said end effector is in said first orientation; and display information regarding said tissue-treating function in a second display orientation when said end effector is in said second orientation. a handle; a shaft comprising a longitudinal shaft axis; an end effector configured to perform a tissue-treating function, wherein said end effector comprises: an end effector frame comprising a longitudinal end effector axis; and a jaw rotatably coupled to said end effector frame; an end effector frame comprising a longitudinal end effector axis; and a jaw rotatably coupled to said end effector frame; an actuator configured to actuate said tissue-treating function; a rotation joint rotatably connecting said end effector to said shaft; an electric motor operably coupled to said end effector frame, wherein said electric motor is configured to rotate said end effector about said longitudinal end effector axis between a first end effector orientation and a second end effector orientation; a processor configured to evaluate the orientation of said end effector; and a display in communication with said processor, characterized in that said display is configured to: display information regarding said tissue-treating function in a first display orientation when said end effector is in said first orientation; and display information regarding said tissue-treating function in a second display orientation when said end effector is in said second orientation. display information regarding said tissue-treating function in a first display orientation when said end effector is in said first orientation; and display information regarding said tissue-treating function in a second display orientation when said end effector is in said second orientation.
A yarn winding device comprising: a yarn supplying section adapted to hold a yarn supplying bobbin; a winding section (13, 60) adapted to wind a yarn unwound to one side in an axial direction from the yarn supplying bobbin; a speed setting section adapted to set a winding speed of the winding section (13, 60); and a winding control section adapted to control the winding section (13, 60) based on the winding speed set by the speed setting section; wherein the winding control section functions as an unwinding position detecting section adapted to detect a yarn unwinding position of the yarn supplying bobbin; the speed setting section divides a winding range in which the yarn is wound in the yarn supplying bobbin to a plurality of individual setting ranges (A1a to A1g) and sets the winding speed of the winding section (13, 60) for each of the plurality of individual setting ranges (A1a to A1g); and the winding control section controls the winding section (13, 60) to wind the yarn at the winding speed set with respect to the range in which the yarn unwinding position is located in accordance with in which range of the plurality of individual setting ranges (A1a to A1g) the detected yarn unwinding position is located, characterized in that the winding speed is set in accordance with a yarn unwinding property such that the yarn is unwound at a high winding speed at a portion where the yarn is wound at a defined strength, and the yarn is unwound at a low winding speed at a portion where the yarn is wound looser than the defined strength. a yarn supplying section adapted to hold a yarn supplying bobbin; a winding section (13, 60) adapted to wind a yarn unwound to one side in an axial direction from the yarn supplying bobbin; a speed setting section adapted to set a winding speed of the winding section (13, 60); and a winding control section adapted to control the winding section (13, 60) based on the winding speed set by the speed setting section; wherein the winding control section functions as an unwinding position detecting section adapted to detect a yarn unwinding position of the yarn supplying bobbin; the speed setting section divides a winding range in which the yarn is wound in the yarn supplying bobbin to a plurality of individual setting ranges (A1a to A1g) and sets the winding speed of the winding section (13, 60) for each of the plurality of individual setting ranges (A1a to A1g); and the winding control section controls the winding section (13, 60) to wind the yarn at the winding speed set with respect to the range in which the yarn unwinding position is located in accordance with in which range of the plurality of individual setting ranges (A1a to A1g) the detected yarn unwinding position is located, characterized in that the winding speed is set in accordance with a yarn unwinding property such that the yarn is unwound at a high winding speed at a portion where the yarn is wound at a defined strength, and the yarn is unwound at a low winding speed at a portion where the yarn is wound looser than the defined strength.
A light fixture, comprising: a plurality of LED channels (1322, 1324, 1380) coupled to a current node and configured to receive a constant-current signal from the current node; and a processor coupled to each of the plurality of LED channels (1322, 1324, 1380) and configured to allow each of the plurality of LED channels (1322, 1324, 1380) to receive the constant-current signal at mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within a time period (1502; 1532; 1542) during a first mode of operation and configured to allow each of the plurality of LED channels (1322, 1324, 1380) to concurrently receive the constant-current signal during a second mode of operation; wherein the processor transitions from the first mode of operation to the second mode of operation: when a duration of each of the mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within the time period (1502; 1532; 1542) are substantially equal; or, when a duration of each of the mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within the time period (1502; 1532; 1542) are within a percentage range of each other, wherein the percentage range is substantially between zero and twenty percent, and wherein the percentage range is preferably between zero and five percent. a plurality of LED channels (1322, 1324, 1380) coupled to a current node and configured to receive a constant-current signal from the current node; and a processor coupled to each of the plurality of LED channels (1322, 1324, 1380) and configured to allow each of the plurality of LED channels (1322, 1324, 1380) to receive the constant-current signal at mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within a time period (1502; 1532; 1542) during a first mode of operation and configured to allow each of the plurality of LED channels (1322, 1324, 1380) to concurrently receive the constant-current signal during a second mode of operation; wherein the processor transitions from the first mode of operation to the second mode of operation: when a duration of each of the mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within the time period (1502; 1532; 1542) are substantially equal; or, when a duration of each of the mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within the time period (1502; 1532; 1542) are within a percentage range of each other, wherein the percentage range is substantially between zero and twenty percent, and wherein the percentage range is preferably between zero and five percent. when a duration of each of the mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within the time period (1502; 1532; 1542) are substantially equal; or, when a duration of each of the mutually exclusive time slots (1504, 1506, 1508; 1534, 1536; 1544, 1546, 1548) within the time period (1502; 1532; 1542) are within a percentage range of each other, wherein the percentage range is substantially between zero and twenty percent, and wherein the percentage range is preferably between zero and five percent.
A method at a user equipment operating in a heterogeneous wireless network having a plurality of access nodes comprising a first access node of a cell and at least one low power access node, wherein the user equipment receives stronger downlink signals from the first access node than from the at least one low power access node, the method comprising: determining, by the user equipment, whether a low power access node is better for uplink data transmission than the first access node, the low power access node having lower transmit power than the first access node and being within the coverage area of the first access node cell and wherein the determining comprises comparing a reference signal received power ('RSRP') from the low power access node with an RSRP from the first access node; identifying, by the user equipment, one random access preamble out of a plurality of sets of random access preambles, wherein the plurality of sets includes a first set of random access preambles used for sending to the first access node, and a second set of random access preambles used for sending to the low power access node; and if the low power access node is determined to be better for uplink data transmission, sending, from the user equipment to the low power access node, a random access preamble belonging to the first set of random access preambles for sending to the first access node, wherein sending the random access preamble comprises sending the random access preamble in physical random access channel ('PRACH') time-frequency resources allocated for the low power access node. determining, by the user equipment, whether a low power access node is better for uplink data transmission than the first access node, the low power access node having lower transmit power than the first access node and being within the coverage area of the first access node cell and wherein the determining comprises comparing a reference signal received power ('RSRP') from the low power access node with an RSRP from the first access node; identifying, by the user equipment, one random access preamble out of a plurality of sets of random access preambles, wherein the plurality of sets includes a first set of random access preambles used for sending to the first access node, and a second set of random access preambles used for sending to the low power access node; and if the low power access node is determined to be better for uplink data transmission, sending, from the user equipment to the low power access node, a random access preamble belonging to the first set of random access preambles for sending to the first access node, wherein sending the random access preamble comprises sending the random access preamble in physical random access channel ('PRACH') time-frequency resources allocated for the low power access node.
A sensor module, comprising: a housing; a sensor board that includes a sensor element and is arranged in the housing; an external connector that is provided to the housing; a flexible printed circuit that electrically connects the sensor board and the external connector, the flexible printed circuit including a signal line and a ground line; and a metallic shield case that includes a bottom portion and a peripheral surface portion, the bottom portion being arranged between the flexible printed circuit and the external connector, the peripheral surface portion covering around the sensor board, the external connector including a first connection pin that is connected to the signal line, a second connection pin that is connected to the ground line, and a third connection pin that is connected to the bottom portion of the shield case, the bottom portion including a first hole, a second hole, a third hole, and a thermal storage, the first hole being a hole through which the first connection pin passes, the second hole being a hole through which the second connection pin passes, the third hole being a hole through which the third connection pin passes, the thermal storage being provided around the third hole and covered with a solder material used to join the third connection pin to the bottom portion, wherein the thermal storage includes a plurality of slits or a concave portion or a heat transfer portion. a housing; a sensor board that includes a sensor element and is arranged in the housing; an external connector that is provided to the housing; a flexible printed circuit that electrically connects the sensor board and the external connector, the flexible printed circuit including a signal line and a ground line; and a metallic shield case that includes a bottom portion and a peripheral surface portion, the bottom portion being arranged between the flexible printed circuit and the external connector, the peripheral surface portion covering around the sensor board, the external connector including a first connection pin that is connected to the signal line, a second connection pin that is connected to the ground line, and a third connection pin that is connected to the bottom portion of the shield case, the bottom portion including a first hole, a second hole, a third hole, and a thermal storage, the first hole being a hole through which the first connection pin passes, the second hole being a hole through which the second connection pin passes, the third hole being a hole through which the third connection pin passes, the thermal storage being provided around the third hole and covered with a solder material used to join the third connection pin to the bottom portion, wherein the thermal storage includes a plurality of slits or a concave portion or a heat transfer portion.
A portable radiological cassette comprising: • a housing, • a digital detector of incident ionizing radiation, taking the form of a flat panel, the detector being positioned in the housing and comprising a unique memory space, and being intended to generate a plurality of digital images of patients exposed to the ionizing radiation, an identification code being associated with each of the patients, each image of the plurality of digital images of the patients being stored in the unique memory space; characterized in that it comprises a device for selecting the identification code of the patients, which is intended to write the identification code of the patients in the unique memory space, so as to associate in the unique memory space each image of the plurality of images to a patient. • a housing, • a digital detector of incident ionizing radiation, taking the form of a flat panel, the detector being positioned in the housing and comprising a unique memory space, and being intended to generate a plurality of digital images of patients exposed to the ionizing radiation, an identification code being associated with each of the patients, each image of the plurality of digital images of the patients being stored in the unique memory space;
An impedance measurement circuit comprising: - a current source arrangement; - a voltage measurement arrangement; and - a processor, wherein the circuit is operable in a two-point measurement mode and a four-point measurement mode, and wherein the processor is adapted to derive the impedance to be measured by combining the measurement voltages from the two-point and the four-point measurement modes, characterized in that the impedance to be measured B' derived by calculating: Z = Zfourpoint 1 - Ztwopoint R i wherein Zfourpoint is the four-point impedance derived from the four point measurement voltage, Ztwopoint is the two-point impedance derived from the two point measurement voltage, and Ri is the internal impedance of the voltage measurement arrangement.. - a current source arrangement; - a voltage measurement arrangement; and - a processor, wherein the circuit is operable in a two-point measurement mode and a four-point measurement mode, and wherein the processor is adapted to derive the impedance to be measured by combining the measurement voltages from the two-point and the four-point measurement modes, characterized in that the impedance to be measured B' derived by calculating: Z = Zfourpoint 1 - Ztwopoint R i wherein Zfourpoint is the four-point impedance derived from the four point measurement voltage, Ztwopoint is the two-point impedance derived from the two point measurement voltage, and Ri is the internal impedance of the voltage measurement arrangement..
A computer-implemented method, comprising: receiving, from a first network element including a first smart network interface card, NIC, by a second network element, capability information of the first smart NIC; determining that one or more network processing tasks of a virtualized network function instantiated in the second network element can be offloaded to the first smart NIC based on the capability information; receiving, from the virtualized network function, processing information for performing the one or more network processing tasks; and transmitting, based on the processing information, control information that causes the first smart NIC to perform the one or more network processing tasks on at least a portion of network data received by the first network element for transmission to the second network element. receiving, from a first network element including a first smart network interface card, NIC, by a second network element, capability information of the first smart NIC; determining that one or more network processing tasks of a virtualized network function instantiated in the second network element can be offloaded to the first smart NIC based on the capability information; receiving, from the virtualized network function, processing information for performing the one or more network processing tasks; and transmitting, based on the processing information, control information that causes the first smart NIC to perform the one or more network processing tasks on at least a portion of network data received by the first network element for transmission to the second network element.