mhurhangee/ep-ind-claims huggingface dataset:
A single-piece ferrule for a fitting for coupling a capillary to another component of a fluidic device, wherein the ferrule comprises a ferrule body; wherein the ferrule body has a lumen configured for receiving at least a part of the capillary; wherein the ferrule extends between a cone end and a compression end; wherein the ferrule body has a tapering front part configured for forming a sealed connection with a housing (204, 206) of the fitting, the tapering front part having a front face, a back face and a lateral surface tapering from the back face of the tapering front part towards the front face of the tapering front part; characterized in that a back side of the tapering front part has an annular undercut formed as a circumferential recess extending into the back face of the tapering front part along to an extension direction of the lumen and tapering inwardly in a direction from the compression end to the cone end, the ferrule body has a tapering middle part adjacent to the annular undercut of the tapering front part, wherein the annular undercut is configured to be radially reduced in volume upon compressing the ferrule for forming the sealed connection with the housing (204, 206).
A control method for controlling a second server apparatus configured to communicate with a first server apparatus, providing a collaboration tool in which a user at an information processing apparatus (100, 101) can log in, said second server configured to communicate with a cloud storage service and with a cloud print service, the second server apparatus configured to store a program, the first server apparatus being configured to communicate with the information processing apparatus (100, 101), the program providing a function for printing a file having been uploaded to the cloud storage service from the information processing apparatus (100, 101), wherein the second server apparatus executes the steps of the control method, the method characterized by comprising: acquiring network information of the information processing apparatus (100, 101) accessing the first server apparatus; selecting (S8002, and S11002 to S11007), based on the acquired network information, a first piece of printer information defining a default printer to be default-selected for printing from a list of default printers registered in a default printer management table; acquiring (S8003, S8004), from the cloud print service, a list of printers which the user who is logged in to the collaboration tool is able to use; and performing control (S8005, S11003 to S11007, and S11001) for causing the information processing apparatus to display the selected first piece of printer information as the default printer in an area, and to display a button for displaying the list of printers, wherein the list of printers is displayed based on selection of the button, and then a printer is selected from the displayed list of printers by the user. acquiring network information of the information processing apparatus (100, 101) accessing the first server apparatus; selecting (S8002, and S11002 to S11007), based on the acquired network information, a first piece of printer information defining a default printer to be default-selected for printing from a list of default printers registered in a default printer management table; acquiring (S8003, S8004), from the cloud print service, a list of printers which the user who is logged in to the collaboration tool is able to use; and performing control (S8005, S11003 to S11007, and S11001) for causing the information processing apparatus to display the selected first piece of printer information as the default printer in an area, and to display a button for displaying the list of printers, wherein the list of printers is displayed based on selection of the button, and then a printer is selected from the displayed list of printers by the user.
An antisense oligomer of 14 to 32 bases in length comprising connected two unit oligomers selected from the group consisting of (a) to (e) shown below, or a pharmaceutically acceptable salt or hydrate thereof, wherein the two unit oligomers are not contiguous to each other or do not overlap with each other: (a) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions -5 to 15 from the 5'-terminal end of exon 45 in the human dystrophin gene; (b) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 48 to 70 from the 5'-terminal end of exon 45 in the human dystrophin gene; (c) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 128 to 150 from the 5'-terminal end of exon 45 in the human dystrophin gene; (d) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 15 to 40 from the 5'-terminal end of exon 45 in the human dystrophin gene; and (e) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 110 to 125 from the 5'-terminal end of exon 45 in the human dystrophin gene. (a) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions -5 to 15 from the 5'-terminal end of exon 45 in the human dystrophin gene; (b) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 48 to 70 from the 5'-terminal end of exon 45 in the human dystrophin gene; (c) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 128 to 150 from the 5'-terminal end of exon 45 in the human dystrophin gene; (d) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 15 to 40 from the 5'-terminal end of exon 45 in the human dystrophin gene; and (e) a unit oligomer consisting of a nucleotide sequence complementary to a nucleotide sequence consisting of contiguous 7 to 16 bases selected from a nucleotide sequence located at positions 110 to 125 from the 5'-terminal end of exon 45 in the human dystrophin gene.
A method for receiving a broadcast signal, the method comprising: if the broadcast signal is received in a frame that includes a plurality of combined bands divided along a frequency domain, determining a position of reserved tones wherein reserved tone patterns are repeated at every combined band; and extracting broadcast data from the broadcast signal in consideration of the determined position of the reserved tones. if the broadcast signal is received in a frame that includes a plurality of combined bands divided along a frequency domain, determining a position of reserved tones wherein reserved tone patterns are repeated at every combined band; and extracting broadcast data from the broadcast signal in consideration of the determined position of the reserved tones.
An extended base for a mobile terminal, wherein the extended base is a wireless network access node or wireless network range extender, the extended base comprises a first connector, an enable circuit, a switch circuit, and a power supply, a metal shield disposed on the first connector, the metal shield being connected to the enable circuit; the extended base being configured such that when a mobile terminal is inserted into the extended base, a second connector of the mobile terminal is in contact with the first connector, the metal shield of the first connector being connected to a metal shield of the second connector for grounding, the enable circuit is electrically connected to the mobile terminal and configured to generate an enable signal, and the switch circuit is connected to the enable circuit and configured to output a voltage under control of the enable signal, so that under control of the voltage, the extended base can enable the power supply to supply power; and when the mobile terminal is removed from the extended base, the second connector is out of contact with the first connector, the enable circuit is electrically disconnected from the mobile terminal and is configured to stop generating the enable signal, and the switch circuit is configured to stop outputting the voltage, so that under the control of the voltage, the extended base cannot enable the power supply to supply power; wherein the enable circuit comprises a first switch element, the first switch element comprises a control end (G 1), a first connection end (S 1), and a second connection end (D 1), the control end (G 1) being connected to the metal shield disposed on the first connector, the first connection end (S 1) being connected to a power supply port VBUS pin of the extended base, and the second connection end being connected to the switch circuit; wherein the first switch element is a p-channel enhancement type MOSFET, the control end (G 1) of the first switch element is the gate electrode of the MOSFET, the first connection end (S 1) of the first switch element is the source electrode of the MOSFET, and the second connection end (D 1) of the first switch element is the drain electrode of the MOSFET, and when the enable circuit is electrically connected to the mobile terminal, the control end (G 1) is connected to the metal shield of the second connector for grounding, and the first connection end (S 1) is configured to receive a high level signal in the form of voltage supplied by the mobile terminal via the VBUS pin of the second connector being connected to the VBUS pin of the first connector, wherein said voltage is higher than a first preset threshold so that the p-channel of the MOSFET is put in a conducting state, so that the enable signal is generated on the second connection end (D 1); and when the mobile terminal is being removed from the extended base, the control end (G 1) is free, so that the first connection end (S 1) and the second connection end (D 1) are disconnected so that the MOSFET is not in a conducting state so that the enable signal is not generated on the second connection end (D 1).
A switch-opening speed adjustment mechanism comprising: a vacuum valve having, inside the vacuum valve, a fixed contact and a movable contact contactable with and separable from the fixed contact; an operation mechanism which causes the movable contact to contact with or be separated from the fixed contact; a link which is rotated by the operation mechanism; a pin which is moved in the contact/separation direction of the movable contact by the link; a first pipe connected to the pin; a contact-pressure spring which is in contact with an end of the first pipe and applies a contact pressure to the movable contact; a second pipe in contact with a surface, of the contact-pressure spring, that is opposite to a side in contact with the first pipe; a pipe end member welded to the other end of the first pipe; a shaft provided inside the first pipe, the contact-pressure spring, and the second pipe concentrically therewith; a headless bolt which is in contact with an end of the shaft and penetrates through the pipe end member, an end of the headless bolt being in contact with the shaft; and a nut which is screwed to the headless bolt and which is rotated to compress or release the contact-pressure spring, thereby adjusting a switch-opening speed of the movable contact. a vacuum valve having, inside the vacuum valve, a fixed contact and a movable contact contactable with and separable from the fixed contact; an operation mechanism which causes the movable contact to contact with or be separated from the fixed contact; a link which is rotated by the operation mechanism; a pin which is moved in the contact/separation direction of the movable contact by the link; a first pipe connected to the pin; a contact-pressure spring which is in contact with an end of the first pipe and applies a contact pressure to the movable contact; a second pipe in contact with a surface, of the contact-pressure spring, that is opposite to a side in contact with the first pipe; a pipe end member welded to the other end of the first pipe; a shaft provided inside the first pipe, the contact-pressure spring, and the second pipe concentrically therewith; a headless bolt which is in contact with an end of the shaft and penetrates through the pipe end member, an end of the headless bolt being in contact with the shaft; and a nut which is screwed to the headless bolt and which is rotated to compress or release the contact-pressure spring, thereby adjusting a switch-opening speed of the movable contact.
An apparatus comprising: one or more thermal sensors; thermal trip point circuitry coupled to the one or more thermal sensors and configured to detect that one or more thermal thresholds (22, 23) have been exceeded by respective outputs of the one or more thermal sensors; thermal control circuitry configured to respond to the thermal trip point circuitry indicating that at least a first thermal thresholds has been exceeded by reducing a performance level of one or more controlled subsystems (12, 14, 16) in the apparatus, the apparatus being characterized by a processor configured to execute instructions of a software thermal control program operating in parallel with the thermal control circuitry and thermal trip point circuitry, wherein the software thermal control program is configured to shut down at least one of the controlled subsystems responsive to determining that a second one of the one or more thermal threshold has been exceeded; wherein the software thermal control program is configured to acquire respective temperature readings from the thermal sensors at a first frequency, and wherein the thermal trip point circuitry is configured to acquire respective temperature readings from the thermal sensors at a second frequency that is greater than the first frequency. one or more thermal sensors; thermal trip point circuitry coupled to the one or more thermal sensors and configured to detect that one or more thermal thresholds (22, 23) have been exceeded by respective outputs of the one or more thermal sensors; thermal control circuitry configured to respond to the thermal trip point circuitry indicating that at least a first thermal thresholds has been exceeded by reducing a performance level of one or more controlled subsystems (12, 14, 16) in the apparatus, the apparatus being characterized by a processor configured to execute instructions of a software thermal control program operating in parallel with the thermal control circuitry and thermal trip point circuitry, wherein the software thermal control program is configured to shut down at least one of the controlled subsystems responsive to determining that a second one of the one or more thermal threshold has been exceeded; wherein the software thermal control program is configured to acquire respective temperature readings from the thermal sensors at a first frequency, and wherein the thermal trip point circuitry is configured to acquire respective temperature readings from the thermal sensors at a second frequency that is greater than the first frequency.
An observation method of a biological tissue sample for observing a three-dimensional structure of the biological tissue sample, the method comprising: cutting out a sample from the biological tissue, staining the sample, and embedding the sample in a resin to form a sample block; cutting up the sample block into a plurality of sample pieces (12a-12f) and fixing each of the sample pieces to a sample piece placement member to form a plurality of observation samples (13a-13f); observing each of the observation samples with an optical microscope and specifying an observation target area for performing precise observation; observing the observation target area with a scanning electron microscope and specifying and registering a coordinate of the observation target area on the sample piece for each of the observation samples; milling the sample piece comprising irradiating the observation target area of the sample piece with an ion beam using gas as an ion source or a neutral particle beam with reference to the coordinate and exposing an observation surface inside the sample piece; and obtaining a scanning electron microscope image of the observation surface with the scanning electron microscope. cutting out a sample from the biological tissue, staining the sample, and embedding the sample in a resin to form a sample block; cutting up the sample block into a plurality of sample pieces (12a-12f) and fixing each of the sample pieces to a sample piece placement member to form a plurality of observation samples (13a-13f); observing each of the observation samples with an optical microscope and specifying an observation target area for performing precise observation; observing the observation target area with a scanning electron microscope and specifying and registering a coordinate of the observation target area on the sample piece for each of the observation samples; milling the sample piece comprising irradiating the observation target area of the sample piece with an ion beam using gas as an ion source or a neutral particle beam with reference to the coordinate and exposing an observation surface inside the sample piece; and obtaining a scanning electron microscope image of the observation surface with the scanning electron microscope.
A porous membrane comprising: at least one layer of porous polymer film made by a dry-stretch process including the steps of: extruding a polymer into at least a single layer nonporous precursor, and biaxially stretching the nonporous precursor, the biaxial stretching including a machine direction stretching and a transverse direction stretching, the transverse direction stretching including a simultaneous controlled machine direction relax, and characterised by the porous membrane having substantially round shaped pores, the pores having a sphericity factor in the range of 0.25 to 8.0, a porosity of 40% to 90%, a ratio of machine direction tensile strength to transverse direction tensile strength in the range of 0.5 to 5.0, a JIS Gurley permeability of less than 100 seconds, a mean flow pore diameter of at least 0.04 microns, an Aquapore size of at least 0.07 microns, and a hydro-head pressure greater than 140 psi the porous membrane being for humidity control, selective passage of humidity, and/or blockage of liquid water. at least one layer of porous polymer film made by a dry-stretch process including the steps of: extruding a polymer into at least a single layer nonporous precursor, and biaxially stretching the nonporous precursor, the biaxial stretching including a machine direction stretching and a transverse direction stretching, the transverse direction stretching including a simultaneous controlled machine direction relax, and characterised by the porous membrane having substantially round shaped pores, the pores having a sphericity factor in the range of 0.25 to 8.0, a porosity of 40% to 90%, a ratio of machine direction tensile strength to transverse direction tensile strength in the range of 0.5 to 5.0, a JIS Gurley permeability of less than 100 seconds, a mean flow pore diameter of at least 0.04 microns, an Aquapore size of at least 0.07 microns, and a hydro-head pressure greater than 140 psi the porous membrane being for humidity control, selective passage of humidity, and/or blockage of liquid water. extruding a polymer into at least a single layer nonporous precursor, and biaxially stretching the nonporous precursor, the biaxial stretching including a machine direction stretching and a transverse direction stretching, the transverse direction stretching including a simultaneous controlled machine direction relax, and characterised by the porous membrane having substantially round shaped pores, the pores having a sphericity factor in the range of 0.25 to 8.0, a porosity of 40% to 90%, a ratio of machine direction tensile strength to transverse direction tensile strength in the range of 0.5 to 5.0, a JIS Gurley permeability of less than 100 seconds, a mean flow pore diameter of at least 0.04 microns, an Aquapore size of at least 0.07 microns, and a hydro-head pressure greater than 140 psi the porous membrane being for humidity control, selective passage of humidity, and/or blockage of liquid water.
A method for controlling an electric compressor into which an inverter for controlling an electric motor as a drive source is integrally incorporated, comprising the steps of: acquiring (S 13) a temperature of an accessory of said inverter; when said acquired temperature becomes or is already equal to or higher than a maximum rated temperature of said accessory, calculating a value of an electric current which can flow at said acquired temperature and restrictively controlling a rotational speed of said electric compressor such that an input electric current becomes equal to or less than a value of said electric current which can flow; and when said temperature of said accessory becomes lower than said maximum rated temperature, releasing said restrictive control, and wherein said temperature of said accessory is acquired by a temperature sensor provided near said accessory. acquiring (S 13) a temperature of an accessory of said inverter; when said acquired temperature becomes or is already equal to or higher than a maximum rated temperature of said accessory, calculating a value of an electric current which can flow at said acquired temperature and restrictively controlling a rotational speed of said electric compressor such that an input electric current becomes equal to or less than a value of said electric current which can flow; and when said temperature of said accessory becomes lower than said maximum rated temperature, releasing said restrictive control, and wherein said temperature of said accessory is acquired by a temperature sensor provided near said accessory.
A recirculation arrangement for a high temperature fuel cell system or electrolysis cell system, each cell in the system comprising an anode, a cathode, and an electrolyte between the anode and the cathode, the recirculation arrangement comprises at least one ejector for recirculating a fraction of gas exhausted from the anode side, characterized by, that the recirculation arrangement comprises the ejector for accomplishing desired flow rate of the recirculated flow, the ejector comprising at least one nozzle, and the recirculation arrangement comprises means for providing at least one primary feedstock fluid to said nozzle of the ejector, which nozzle has a convergent-divergent flow channel through which the fluid gets expanded from its initial high pressure to a low pressure, and means for providing at least one supplementary fluid to said nozzle of the ejector and the recirculation arrangement comprises means for regulating respective ratio of at least part of the fluids of the ejector to maintain required motive flow and pressure at the nozzle of said ejector in order to accomplish said desired recirculated flow rate, and means for cutting off the supplementary fluid, when level of system loading is such that the primary feedstock fluid alone maintains desired flow and pressure at ejector inlet.