mhurhangee/ep-ind-claims huggingface dataset:
A method for sequencing target nucleic acids derived from a plurality of samples, comprising (a) contacting a plurality of index polynucleotides with target nucleic acids derived from the plurality of samples to generate a plurality of index-target polynucleotides, wherein index polynucleotides contacted with target nucleic acids derived from each sample comprise an index sequence or a combination of index sequences that is uniquely associated with that sample, the index sequence or the combination of index sequences is selected from a set of index sequences, and a Hamming distance between any two index sequences of the set of index sequences is not less than a first criterion value, wherein the first criterion value is at least 2; (b) pooling the plurality of index-target polynucleotides; (c) sequencing the pooled index-target polynucleotides to obtain a plurality of index reads of index sequences and a plurality of target reads of target sequences, each target read being associated with at least one index read; and (d) using the index reads to determine the target reads' sources of samples. (a) contacting a plurality of index polynucleotides with target nucleic acids derived from the plurality of samples to generate a plurality of index-target polynucleotides, wherein index polynucleotides contacted with target nucleic acids derived from each sample comprise an index sequence or a combination of index sequences that is uniquely associated with that sample, the index sequence or the combination of index sequences is selected from a set of index sequences, and a Hamming distance between any two index sequences of the set of index sequences is not less than a first criterion value, wherein the first criterion value is at least 2; index polynucleotides contacted with target nucleic acids derived from each sample comprise an index sequence or a combination of index sequences that is uniquely associated with that sample, the index sequence or the combination of index sequences is selected from a set of index sequences, and a Hamming distance between any two index sequences of the set of index sequences is not less than a first criterion value, wherein the first criterion value is at least 2; (b) pooling the plurality of index-target polynucleotides; (c) sequencing the pooled index-target polynucleotides to obtain a plurality of index reads of index sequences and a plurality of target reads of target sequences, each target read being associated with at least one index read; and (d) using the index reads to determine the target reads' sources of samples.
Hair-styling device for curling or waving hair, comprising two styling bodies (5, 5.1, 5.2) which interact with each other to style the hair and can be rotated about their longitudinal axis, of which at least one of the styling bodies (5, 5.1, 5.2) is driven, which styling bodies (5, 5.1, 5.2) have a shell surface contoured by elevations and recesses and are arranged in relation to one another in such a way that complementary contours of the two styling bodies (5, 5.1, 5.2) mesh in the course of their rotation, characterised in that the styling bodies (5, 5.1, 5.2) have a bone-shaped cross-sectional geometry, formed by two head sections which are thicker in their width and a tapered central section located between the head sections, with only two head sections (7, 7.1) being designed with a shell surface that is convexly rounded at least in some sections, and the tapered central section with a concave shell surface being located between the head sections, wherein the radius of curvature in the region of the central apex of the head sections (7, 7.1) of the one styling body (5, 5.1, 5.2) and the radius of curvature of the tapered central section of the other styling body (5, 5.1, 5.2) correspond to one another, and that the axis of rotation (11, 11.1) of the styling bodies (5, 5.1, 5.2) is arranged in the central section centrally between the central apexes of the head sections (7, 7.1).
A method of operating a high-pressure processing system, the method comprising: bringing a first chamber and a second chamber to a first pressure that is less than 760 Torr (one atmosphere); while an isolation valve is closed, reducing the first chamber from the first pressure to a second pressure and reducing the second chamber from the first pressure to a third pressure; pressurizing the first chamber to a fourth pressure that is above atmospheric pressure and less than 7600 Torr (10 atmospheres) with a gas delivery system; pressurizing the first chamber to a fifth pressure that is above 7600 Torr (10 atmospheres) with the gas delivery system; and processing a substrate while the first chamber is at the fifth pressure. bringing a first chamber and a second chamber to a first pressure that is less than 760 Torr (one atmosphere); while an isolation valve is closed, reducing the first chamber from the first pressure to a second pressure and reducing the second chamber from the first pressure to a third pressure; pressurizing the first chamber to a fourth pressure that is above atmospheric pressure and less than 7600 Torr (10 atmospheres) with a gas delivery system; pressurizing the first chamber to a fifth pressure that is above 7600 Torr (10 atmospheres) with the gas delivery system; and processing a substrate while the first chamber is at the fifth pressure.
A portable power tool, comprising: a prime mover that rotates a tool; and a housing that houses the prime mover, the housing comprising: a back-end groove, into which a user can place his/her web between his/her thumb and forefinger, being formed in a back-end face of the housing that is arranged on an opposite side from the tool, wherein the back-end groove becomes deeper toward the back end of the housing, a pair of side-face grooves (131, 133), into which the user can place the thumb and forefinger, being formed in both side faces of the housing, and a plurality of protrusions formed in the pair of side-face grooves (131, 133), characterized in that each of the protrusions is in a V-shape tapered toward the back end side of the housing from both end portions of the V-shape to an intermediate portion of the V-shape. a prime mover that rotates a tool; and a housing that houses the prime mover, the housing comprising: a back-end groove, into which a user can place his/her web between his/her thumb and forefinger, being formed in a back-end face of the housing that is arranged on an opposite side from the tool, wherein the back-end groove becomes deeper toward the back end of the housing, a pair of side-face grooves (131, 133), into which the user can place the thumb and forefinger, being formed in both side faces of the housing, and a plurality of protrusions formed in the pair of side-face grooves (131, 133), a back-end groove, into which a user can place his/her web between his/her thumb and forefinger, being formed in a back-end face of the housing that is arranged on an opposite side from the tool, wherein the back-end groove becomes deeper toward the back end of the housing, a pair of side-face grooves (131, 133), into which the user can place the thumb and forefinger, being formed in both side faces of the housing, and a plurality of protrusions formed in the pair of side-face grooves (131, 133), characterized in that each of the protrusions is in a V-shape tapered toward the back end side of the housing from both end portions of the V-shape to an intermediate portion of the V-shape.
Transmission with an oil-distributing system with at least a first region, which is designed to be rotatable, and a second region, wherein the first region, in the radially inner region thereof, is formed at least regionally with at least one opening via which oil is introduced from the second region into the first region in contact-free fashion during operation, wherein the first region comprises, downstream of the opening in relation to the second region, a collecting region which extends in a radial direction and in a circumferential direction of the first region, wherein, in the collecting region, there is provided for the oil at least one accelerating device which is fixedly connected to the first region and by means of which the oil present in the collecting region is, when the first region rotates, accelerated in the circumferential direction of the collecting region and the oil is caused to perform a substantially radial flow in the direction of a radially outer region of the collecting region, wherein the collecting region, in its radially outer region, has at least one outlet opening for the oil, and characterized in that a region of the transmission is provided downstream of the outlet opening and is additionally, for the supply of oil thereof, placed in operative connection, or is in operative connection, with a main oil supply circuit of a jet engine.
A cortical sensing device for contact with the surface of the brain comprising: a support member of a flexibly-conformable material and having a first surface; at least one macroelectrode sensing element secured with respect to the support member and having a macroelectrode brain-contact surface; and at least one microelectrode sensing element secured with respect to the macroelectrode, and having a microelectrode brain-contact surface, wherein the first surface, the macroelectrode brain-contact surface and the microelectrode brain-contact surface are substantially co-planar to abut the surface of the brain for sensoring and monitoring; characterized in that on each macroelectrode sensing element there is included one or a plurality of microelectrode sensing elements spaced from one another so that the microelectrode brain-contact surface is surrounded by the macroelectrode brain-contact surface; and the microelectrode sensing element is a micro-wire insulated therealong to the microelectrode brain-contact surface with a bio-compatible material to prevent electrical interaction between the microelectrode sensing element and macroelectrode sensing element. a support member of a flexibly-conformable material and having a first surface; at least one macroelectrode sensing element secured with respect to the support member and having a macroelectrode brain-contact surface; and at least one microelectrode sensing element secured with respect to the macroelectrode, and having a microelectrode brain-contact surface, wherein the first surface, the macroelectrode brain-contact surface and the microelectrode brain-contact surface are substantially co-planar to abut the surface of the brain for sensoring and monitoring; characterized in that on each macroelectrode sensing element there is included one or a plurality of microelectrode sensing elements spaced from one another so that the microelectrode brain-contact surface is surrounded by the macroelectrode brain-contact surface; and the microelectrode sensing element is a micro-wire insulated therealong to the microelectrode brain-contact surface with a bio-compatible material to prevent electrical interaction between the microelectrode sensing element and macroelectrode sensing element.
An optical side input/output circuit (301, 302, 303) comprising: a grating portion in which a fiber Bragg grating that reflects light of a desired wavelength is formed in a core of an optical fiber, wherein the optical fiber is a step-index fiber, and the light of the desired wavelength being of light propagating in the core; and a tap portion that is disposed at a stage before the grating portion in a propagation direction of the light, and is provided with a tap waveguide that outputs a reflected light reflected by the grating portion from a side surface of the optical fiber, wherein the tap waveguide of the tap portion is connected to the core by passing through a cladding of the optical fiber, and an acute angle (α) is formed by the tap waveguide and the core. a grating portion in which a fiber Bragg grating that reflects light of a desired wavelength is formed in a core of an optical fiber, wherein the optical fiber is a step-index fiber, and the light of the desired wavelength being of light propagating in the core; and a tap portion that is disposed at a stage before the grating portion in a propagation direction of the light, and is provided with a tap waveguide that outputs a reflected light reflected by the grating portion from a side surface of the optical fiber, wherein the tap waveguide of the tap portion is connected to the core by passing through a cladding of the optical fiber, and an acute angle (α) is formed by the tap waveguide and the core.
A rotatable core, comprising: a housing, the housing having an external portion; and an indentation area formed in the external portion, the indentation area being formed to guide a user where to place their finger for launching, such that by pressing down on the indentation area, the core is forced against a ground surface, thereby causing it to spin away from the user; wherein the indentation area is formed off-center on the external portion of the housing; wherein the indentation area is formed with concavity; wherein the housing includes a cavity therein for receiving an object; a release mechanism attached with the housing, the release mechanism including a connector for connecting with a corresponding connector on the object and an expelling mechanism for expelling the object, whereby upon activation of the release mechanism, the connector releases the object and the expelling mechanism forces the object from the housing; wherein the connector of the release mechanism is a release trigger and the expelling mechanism is a spring-compressed platform, with the connector on the object being a clasp; and wherein the release mechanism further comprises a weighted pendulum that is operably connected with the release trigger, such that upon motion of the pendulum, the release trigger releases the clasp and, thereby, releases the object. a housing, the housing having an external portion; and an indentation area formed in the external portion, the indentation area being formed to guide a user where to place their finger for launching, such that by pressing down on the indentation area, the core is forced against a ground surface, thereby causing it to spin away from the user; wherein the indentation area is formed off-center on the external portion of the housing; wherein the indentation area is formed with concavity; wherein the housing includes a cavity therein for receiving an object; a release mechanism attached with the housing, the release mechanism including a connector for connecting with a corresponding connector on the object and an expelling mechanism for expelling the object, whereby upon activation of the release mechanism, the connector releases the object and the expelling mechanism forces the object from the housing; wherein the connector of the release mechanism is a release trigger and the expelling mechanism is a spring-compressed platform, with the connector on the object being a clasp; and wherein the release mechanism further comprises a weighted pendulum that is operably connected with the release trigger, such that upon motion of the pendulum, the release trigger releases the clasp and, thereby, releases the object.
A method performed by a wireless communication device for controlling power in bidirectional Sidelink, SL, communications, the method comprising: - determining a Path Loss, PL, based transmit power for a Physical SL Feedback Channel, PSFCH based on an estimated PL to a Base Station, BS; and - setting an initial PSFCH transmit power as a lesser of the PL-based transmit power for the PSFCH and a Physical SL Shared Channel, PSSCH, transmit power level. - determining a Path Loss, PL, based transmit power for a Physical SL Feedback Channel, PSFCH based on an estimated PL to a Base Station, BS; and - setting an initial PSFCH transmit power as a lesser of the PL-based transmit power for the PSFCH and a Physical SL Shared Channel, PSSCH, transmit power level.
A medical treatment device, comprising: a treatment machine (101, 600, 900, 788) configured to pump a peritoneal dialysis fluid (106, 606) to a patient (108, 214, 612); a dialysate fill-drain line (47, 112, 650, 945) having a proximal end located at the treatment machine (101, 600, 900, 788) and a distal end attachable to a patient access; a proximal pressure sensor (102, 614, 913A/926) positioned to detect a pressure in the dialysate fill-drain line (47, 112, 650, 945) proximal end; a distal pressure sensor (110, 613, 913B/927) positioned to detect pressure in the dialysate fill-drain line (47, 112, 650, 945) at the distal end; the distal pressure sensor (110, 613, 913B/927) including an in-line pressure pod (10, 304, 951) at the distal end with an air line (40, 332, 909) running parallel to, and attached at points along, the dialysate fill-drain line (47, 112, 650, 945), the air line (40, 332, 909) connected at one end to the pressure pod (10, 304, 951) and at the other end to a pressure sensing assembly located at the treatment machine (101, 600, 900, 788). a treatment machine (101, 600, 900, 788) configured to pump a peritoneal dialysis fluid (106, 606) to a patient (108, 214, 612); a dialysate fill-drain line (47, 112, 650, 945) having a proximal end located at the treatment machine (101, 600, 900, 788) and a distal end attachable to a patient access; a proximal pressure sensor (102, 614, 913A/926) positioned to detect a pressure in the dialysate fill-drain line (47, 112, 650, 945) proximal end; a distal pressure sensor (110, 613, 913B/927) positioned to detect pressure in the dialysate fill-drain line (47, 112, 650, 945) at the distal end; the distal pressure sensor (110, 613, 913B/927) including an in-line pressure pod (10, 304, 951) at the distal end with an air line (40, 332, 909) running parallel to, and attached at points along, the dialysate fill-drain line (47, 112, 650, 945), the air line (40, 332, 909) connected at one end to the pressure pod (10, 304, 951) and at the other end to a pressure sensing assembly located at the treatment machine (101, 600, 900, 788).
An electronic device, comprising: a display screen comprising a front surface used for luminescence display and a back surface, and the display screen comprising a display area and a non-display area surrounding the display area; a light sensor arranged below the back surface and opposite the display area; and a light guiding element arranged below the back surface and being configured to transmit light, penetrating the non-display area from the front surface, to the light sensor; wherein the light guiding element comprises a vertical portion perpendicular to the back surface and a horizontal portion connected to the vertical portion, the vertical portion is located opposite the non-display area, and the horizontal portion extends from a bottom end of the vertical portion towards the light sensor; a light incident direction of the light guiding element is perpendicular to the non-display area, and/or a light exit direction of the light guiding element is perpendicular to a light sensing face of the light sensor; characterized in that an arrangement of the light sensor ranges between a first state where the light sensing face is perpendicular to the back surface and a second state where the light sensing face is away from the back surface so that an included angle between the light sensing face and the back surface ranges from 90°to 180°. a display screen comprising a front surface used for luminescence display and a back surface, and the display screen comprising a display area and a non-display area surrounding the display area; a light sensor arranged below the back surface and opposite the display area; and a light guiding element arranged below the back surface and being configured to transmit light, penetrating the non-display area from the front surface, to the light sensor; wherein the light guiding element comprises a vertical portion perpendicular to the back surface and a horizontal portion connected to the vertical portion, the vertical portion is located opposite the non-display area, and the horizontal portion extends from a bottom end of the vertical portion towards the light sensor; a light incident direction of the light guiding element is perpendicular to the non-display area, and/or a light exit direction of the light guiding element is perpendicular to a light sensing face of the light sensor; characterized in that an arrangement of the light sensor ranges between a first state where the light sensing face is perpendicular to the back surface and a second state where the light sensing face is away from the back surface so that an included angle between the light sensing face and the back surface ranges from 90°to 180°.
A user equipment for performing wireless communication with a node using carrier aggregation in a mobile communication system, the user equipment comprising: a receiver configured to receive, from the node, information indicating a radio quality condition that is to be met for the user equipment to perform an activation process for a secondary cell configured for the user equipment; a controller configured to measure radio quality and evaluate whether the radio quality condition is met; and a transmitter configured to transmit a notification regarding the activation process to the node in response to the radio quality condition being met, wherein the controller is configured to perform the activation process for the secondary cell in response to the radio quality condition being met, and complete the activation process within a predetermined time period from a time of transmitting the notification or from a time of receiving a positive acknowledgment to the notification from the node, wherein the transmitter is configured to transmit information indicating the predetermined time period to the node when transmitting the notification or before transmitting the notification. a receiver configured to receive, from the node, information indicating a radio quality condition that is to be met for the user equipment to perform an activation process for a secondary cell configured for the user equipment; a controller configured to measure radio quality and evaluate whether the radio quality condition is met; and a transmitter configured to transmit a notification regarding the activation process to the node in response to the radio quality condition being met, wherein the controller is configured to perform the activation process for the secondary cell in response to the radio quality condition being met, and complete the activation process within a predetermined time period from a time of transmitting the notification or from a time of receiving a positive acknowledgment to the notification from the node, perform the activation process for the secondary cell in response to the radio quality condition being met, and complete the activation process within a predetermined time period from a time of transmitting the notification or from a time of receiving a positive acknowledgment to the notification from the node, wherein the transmitter is configured to transmit information indicating the predetermined time period to the node when transmitting the notification or before transmitting the notification.