mhurhangee/patent-ind-claim-en huggingface dataset:
A recording system , comprising: a recording device including a recording unit configured to perform recording onto a medium , a transporting belt including an adhesive layer and configured to transport the medium stuck on the adhesive layer , a drive unit configured to drive the transporting belt , a peeling device configured to peel the medium from the transporting belt ; and a notification device configured to provide a notification, characterised in that the recording system further comprises a control unit that includes a detection unit configured to detect a load current flowing in the drive unit and that is configured to control the drive unit ; and the control unit causes the notification device to provide a notification on a time to replace the adhesive layer , based on a detection result of the detection unit . a recording device including a recording unit configured to perform recording onto a medium , a transporting belt including an adhesive layer and configured to transport the medium stuck on the adhesive layer , a drive unit configured to drive the transporting belt , a peeling device configured to peel the medium from the transporting belt ; and a notification device configured to provide a notification, characterised in that the recording system further comprises a control unit that includes a detection unit configured to detect a load current flowing in the drive unit and that is configured to control the drive unit ; and the control unit causes the notification device to provide a notification on a time to replace the adhesive layer , based on a detection result of the detection unit .
A package forwarding method for a Software Defined Network, called SDN, wherein the SDN comprises: a controller, a plurality of switches, links between the switches, wherein the links comprise redundant segments, each of the redundant segments is between two respective ones of the plurality of switches and is configured in a blocked state for avoiding a loop, the method comprises: detecting (S302), by the controller, that a link in the SDN is interrupted; determining (S304), by the controller, a replacement link for replacing the interrupted link, wherein the replacement link includes only one redundant segment; sending (S1006), by the controller, messages for cancelling the blocked state to switches at two ends of the one redundant segment in the replacement link, conducting connection processing (S306) on the replacement link according to the messages; and forwarding (S308) a package via the replacement link after connection. detecting (S302), by the controller, that a link in the SDN is interrupted; determining (S304), by the controller, a replacement link for replacing the interrupted link, wherein the replacement link includes only one redundant segment; sending (S1006), by the controller, messages for cancelling the blocked state to switches at two ends of the one redundant segment in the replacement link, conducting connection processing (S306) on the replacement link according to the messages; and forwarding (S308) a package via the replacement link after connection.
A self capacitive touch panel comprising: (m×n) sub-pixels , m and n being positive integer, respectively; wherein touch/fingerprint recognition electrodes including sub-pixels in a row share one sensing line; a readout circuit configured to sense self-capacitance of touch/fingerprint recognition electrodes through the sensing line; a touch detection processor configured to detect touch point or obtain fingerprint information through the sensed self-capacitance; a driver configured to drive the sub-pixels , wherein the readout circuit further includes a sensing switch (SS) for transmitting a signal to a sub-pixel of said sub-pixels through a scan line connected to said sub-pixel and switching connection between the scan line and a charge amplifier; and the touch/fingerprint recognition electrodes are connected to the readout circuit through a plurality of scan lines and a plurality of sensing lines are connected to the readout circuit , wherein in touch point detection, the readout circuit is configured to transmit simultaneously signals to the plurality of scan lines, to turn on simultaneously sensing switches (SS) between the plurality of sensing lines and corresponding charge amplifiers and then to sense self-capacitance of the touch/fingerprint recognition electrodes through the sensing lines, and the touch detection processor detects the touch point through the sensed self-capacitance. (m×n) sub-pixels , m and n being positive integer, respectively; wherein touch/fingerprint recognition electrodes including sub-pixels in a row share one sensing line; a readout circuit configured to sense self-capacitance of touch/fingerprint recognition electrodes through the sensing line; a touch detection processor configured to detect touch point or obtain fingerprint information through the sensed self-capacitance; a driver configured to drive the sub-pixels , wherein the readout circuit further includes a sensing switch (SS) for transmitting a signal to a sub-pixel of said sub-pixels through a scan line connected to said sub-pixel and switching connection between the scan line and a charge amplifier; and the touch/fingerprint recognition electrodes are connected to the readout circuit through a plurality of scan lines and a plurality of sensing lines are connected to the readout circuit , wherein in touch point detection, the readout circuit is configured to transmit simultaneously signals to the plurality of scan lines, to turn on simultaneously sensing switches (SS) between the plurality of sensing lines and corresponding charge amplifiers and then to sense self-capacitance of the touch/fingerprint recognition electrodes through the sensing lines, and the touch detection processor detects the touch point through the sensed self-capacitance.
A compound represented by the following structural formula: or a pharmaceutically acceptable salt thereof, for use in intravenously treating a human patient with acute kidney injury.
A connector for a fluid conduction system comprising: - a female coupling part ; - a male coupling part for inserting into the female coupling part along a longitudinal axis of the connector ; and - controlling means for locking/unlocking the inserted male coupling part within the female coupling part and for controlling the fluidic coupling of the two coupling parts by rotating said two coupling parts against one another about the longitudinal axis ; wherein a portion of each of the coupling parts is realized as a shut-off valve with a valve body and a rotatable slider element , wherein the rotatable slider element of each shut-off valve is in a compulsory closed position when the two coupling parts are unlocked; and wherein the rotatable slider element of each shut-off valve is transferable between the closed position and an open position only if the two coupling parts are locked by use of the controlling means, characterized in that for each shut-off valve the rotatable slider element is arranged inside the valve body and formed as a sleeve with a breakthrough in the respective sleeve wall, wherein this breakthrough in the sleeve wall corresponds to a breakthrough in the valve-body , wherein the shut-off valve of the male coupling part is arrange inside the shut-off valve of the female coupling part when both coupling parts are coupled, wherein both sleeve formed slider elements are arranged coaxially. - a female coupling part ; - a male coupling part for inserting into the female coupling part along a longitudinal axis of the connector ; and - controlling means for locking/unlocking the inserted male coupling part within the female coupling part and for controlling the fluidic coupling of the two coupling parts by rotating said two coupling parts against one another about the longitudinal axis ;
A waveguide apparatus for an illumination system, comprising: a waveguide in which coherent light is to propagate along its longitudinal axis, the waveguide having formed therein a first scattering zone that runs along the longitudinal axis and that is to scatter the propagating coherent light out of the waveguide at a non-zero angle relative to the longitudinal axis; an electro-active coating outside the waveguide having formed therein a second scattering zone that is positioned to receive the scattered light from the first scattering zone ; and means for applying a voltage to drive the electro-active coating that causes the coating to dynamically change its shape, thereby reducing overall speckle contrast when the light that is scattered out of the coating illuminates a nearby surface. a waveguide in which coherent light is to propagate along its longitudinal axis, the waveguide having formed therein a first scattering zone that runs along the longitudinal axis and that is to scatter the propagating coherent light out of the waveguide at a non-zero angle relative to the longitudinal axis; an electro-active coating outside the waveguide having formed therein a second scattering zone that is positioned to receive the scattered light from the first scattering zone ; and means for applying a voltage to drive the electro-active coating that causes the coating to dynamically change its shape, thereby reducing overall speckle contrast when the light that is scattered out of the coating illuminates a nearby surface.
A terminal, wherein the terminal comprises: a configuration information obtaining module , configured to obtain configuration information that is used to determine a transmit power used for transmitting a signal at each coverage enhancement level, wherein, the configuration information comprises a maximum quantity of signal transmitting attempts corresponding to each coverage enhancement level and a quantity of repetition times required for the signal to be transmitted at each coverage enhancement level; and a transmit power determining module , configured to determine, according to the configuration information, a transmit power used for transmitting the signal at a coverage enhancement level currently used by the terminal. a configuration information obtaining module , configured to obtain configuration information that is used to determine a transmit power used for transmitting a signal at each coverage enhancement level, wherein, the configuration information comprises a maximum quantity of signal transmitting attempts corresponding to each coverage enhancement level and a quantity of repetition times required for the signal to be transmitted at each coverage enhancement level; and a transmit power determining module , configured to determine, according to the configuration information, a transmit power used for transmitting the signal at a coverage enhancement level currently used by the terminal.
An article , comprising: a silicon-containing region ; at least one outer layer overlying a surface of the silicon-containing region; and a constituent layer of thermally grown oxide on the surface of the silicon-containing region and between and contacting the silicon-containing region and the at least one outer layer, the constituent layer being formed by constituents of the silicon-containing region and being susceptible to creep within an operating environment of the article, wherein the silicon-containing region defines a pluarality of channels and a plurality of ridges that interlock within a plurality of channels formed in the at least one outer layer to physically interlock the at least one outer layer with the silicon-containing region through the constituent layer, wherein the ridges have a height (H) of from about 10 to about 250 μm, a wavelength (L) of from about 20 to about 10,000 μm, a ratio of a span (W) of each ridge to the wavelength (L) of the ridges to of about 0.1 to about 0.9. a silicon-containing region ; at least one outer layer overlying a surface of the silicon-containing region; and a constituent layer of thermally grown oxide on the surface of the silicon-containing region and between and contacting the silicon-containing region and the at least one outer layer, the constituent layer being formed by constituents of the silicon-containing region and being susceptible to creep within an operating environment of the article, wherein the silicon-containing region defines a pluarality of channels and a plurality of ridges that interlock within a plurality of channels formed in the at least one outer layer to physically interlock the at least one outer layer with the silicon-containing region through the constituent layer, wherein the ridges have a height (H) of from about 10 to about 250 μm, a wavelength (L) of from about 20 to about 10,000 μm, a ratio of a span (W) of each ridge to the wavelength (L) of the ridges to of about 0.1 to about 0.9.
A method for calculating a physical address based on a received virtual address, comprising: calculating , by a device, an offset value based on the received virtual address, the offset value being equal to the received virtual address minus a base address; determining , by the device and when the offset value is negative, that the received virtual address is outside a predetermined range; comparing , by the device and when the offset value is zero or positive, the offset value to a length value, the received virtual address being outside the predetermined range when the offset value is greater than the length value, and the received virtual address being within the predetermined range when the offset value equals zero or when the offset value is less than the length value; determining , by the device and when the received virtual address is within the predetermined range, whether an access type associated with the received virtual address is permitted; calculating , by the device, the physical address via a first processing path when the access type is not permitted or when the received virtual address is outside the predetermined range; and calculating , by the device, the physical address, via a second processing path and based on the offset value and a relocation value, when the access type is permitted, the second processing path being faster than the first processing path. calculating , by a device, an offset value based on the received virtual address, the offset value being equal to the received virtual address minus a base address; determining , by the device and when the offset value is negative, that the received virtual address is outside a predetermined range; comparing , by the device and when the offset value is zero or positive, the offset value to a length value, the received virtual address being outside the predetermined range when the offset value is greater than the length value, and the received virtual address being within the predetermined range when the offset value equals zero or when the offset value is less than the length value; determining , by the device and when the received virtual address is within the predetermined range, whether an access type associated with the received virtual address is permitted; calculating , by the device, the physical address via a first processing path when the access type is not permitted or when the received virtual address is outside the predetermined range; and calculating , by the device, the physical address, via a second processing path and based on the offset value and a relocation value, when the access type is permitted, the second processing path being faster than the first processing path.
Heat exchanger comprising circulation elements fluidically connected to one or more manifolds which are closed at the ends by respective end caps , have a passage cross section for said heat-carrier fluid and are configured to feed a heat-carrier fluid in said circulation elements and to collect said heat-carrier fluid at exit from said circulation elements , damping means comprising at least one distributor baffle , wherein said damping means are operatively associated with at least one of said manifolds able to damp pressure waves which characterize the flow of heat-carrier fluid and modify their relative frequency and/or amplitude in order to prevent the occurrence of resonance phenomena, said heat exchanger being characterized in that said at least one distributor baffle is disposed only in the proximity of one of said end caps so that said passage cross section of said manifolds is substantially free of damping means for most of its longitudinal extension.
A wet-formed solid porous body that has a density of 100 to 400 kg/m 3 and is based on fibrous material from softwood including fractions of fibers separated from one another in a mechanical pulping process, said solid porous body comprising: - a fiber fraction wherein the fibers have - a weighted average fiber length of from 0.5 to 2.0 mm; - a weighted average fiber width of from 20 to 50 μm, both calculated according to TAPPI standard T232cm-01; and - a fines fraction wherein the particles have a weighted average length of less than 0.2 mm, calculated according to TAPPI standard T232cm-01, and constitute from 5 to 50 percent by weight of said fibrous material; and said solid body being hydrogen bonded and free from added non-cellulose based binders. - a fiber fraction wherein the fibers have - a weighted average fiber length of from 0.5 to 2.0 mm; - a weighted average fiber width of from 20 to 50 μm, both calculated according to TAPPI standard T232cm-01; and - a weighted average fiber length of from 0.5 to 2.0 mm; - a weighted average fiber width of from 20 to 50 μm, both calculated according to TAPPI standard T232cm-01; and - a fines fraction wherein the particles have a weighted average length of less than 0.2 mm, calculated according to TAPPI standard T232cm-01, and constitute from 5 to 50 percent by weight of said fibrous material; and
An aqueous topical spray composition comprising: a) a corticosteroid which is a betamethasone compound, such as betamethasone benzoate, betamethasone dipropionate, betamethasone sodium phosphate, betamethasone valerate and combinations thereof; b) a fatty alcohol acting as a skin penetration enhancer, wherein the fatty alcohol comprises oleyl alcohol and is present in an amount of about 0.001% to about 15% by weight based on the total weight of the composition; c) at least one pharmaceutically and/or dermatologically acceptable excipient and d) water; and e) wherein the composition is free of propylene glycol, free of propellant and substantially non-foaming, such that the topical spray composition forms mist or droplet in more than 90% of quantity when sprayed onto the affected skin area. a) a corticosteroid which is a betamethasone compound, such as betamethasone benzoate, betamethasone dipropionate, betamethasone sodium phosphate, betamethasone valerate and combinations thereof; b) a fatty alcohol acting as a skin penetration enhancer, wherein the fatty alcohol comprises oleyl alcohol and is present in an amount of about 0.001% to about 15% by weight based on the total weight of the composition; c) at least one pharmaceutically and/or dermatologically acceptable excipient and d) water; and e) wherein the composition is free of propylene glycol, free of propellant and substantially non-foaming, such that the topical spray composition forms mist or droplet in more than 90% of quantity when sprayed onto the affected skin area.
A patch comprising a backing layer and an adhesive layer, wherein the adhesive layer contains at least one selected from the group consisting of butorphanol and pharmaceutically acceptable salts thereof, and contains an adhesive base and an antioxidant containing a sulfur atom in its molecule, wherein the antioxidant containing a sulfur atom in its molecule is 2-mercaptobenzimidazole.
A probe assembly , comprising: a multi-core optical fiber ; a cannula , wherein the multi-core optical fiber extends at least partially through the cannula for transmitting laser light from a laser source to a target location; a gradient index (GRIN) lens housed in the cannula, wherein the multi-core optical fiber touches a proximal end of the GRIN lens; and a cylindrical window press-fitted to a distal end of the cannula, wherein a distal end of the GRIN lens touches a proximal end of the cylindrical window inside the cannula and wherein a distal end of the cylindrical window extends outside the cannula , wherein the GRIN lens is positioned between the multi-core optical fiber and the cylindrical window . a multi-core optical fiber ; a cannula , wherein the multi-core optical fiber extends at least partially through the cannula for transmitting laser light from a laser source to a target location; a gradient index (GRIN) lens housed in the cannula, wherein the multi-core optical fiber touches a proximal end of the GRIN lens; and a cylindrical window press-fitted to a distal end of the cannula, wherein a distal end of the GRIN lens touches a proximal end of the cylindrical window inside the cannula and wherein a distal end of the cylindrical window extends outside the cannula , wherein the GRIN lens is positioned between the multi-core optical fiber and the cylindrical window .
A method of processing hyaluronic acid or Na-hyaluronate, comprising: providing hyaluronic acid or Na-hyaluronate in dry particulate form; optionally providing at least one active pharmaceutical ingredient; providing a single-phase multicomponent system of solvents, wherein the system of solvents comprises (a) water and (b) ethanol or isopropanol; blending the hyaluronic acid or Na-hyaluronate in dry particulate form and the single-phase multicomponent system of solvents; homogenizing the blended mixture by mechanical means; and pressing the homogenized blended mixture in a cavity or a mold, and drying and/or solidifying before or after removal from the cavity or mold. providing hyaluronic acid or Na-hyaluronate in dry particulate form; optionally providing at least one active pharmaceutical ingredient; providing a single-phase multicomponent system of solvents, wherein the system of solvents comprises (a) water and (b) ethanol or isopropanol; blending the hyaluronic acid or Na-hyaluronate in dry particulate form and the single-phase multicomponent system of solvents; homogenizing the blended mixture by mechanical means; and pressing the homogenized blended mixture in a cavity or a mold, and drying and/or solidifying before or after removal from the cavity or mold.