mhurhangee/patent-ind-claim-en huggingface dataset:
An infusion pump for selectable use with either one of a first drug library editor operable to generate a first drug library and a second drug library editor operable to generate a second drug library , the first drug library editor being one of a dedicated drug library editor and an enterprise drug library editor , and the second drug library editor being the other of the one of the dedicated drug library editor and the enterprise drug library editor, wherein the dedicated drug library editor is connectable to and provides a drug library for a single infusion pump or a single type of infusion pump, and the enterprise drug library editor is connectable to and provides drug libraries for a plurality of infusion pumps or a plurality of types of infusion pumps, the infusion pump comprising: a memory operable to store an operational drug library ; a flow controller operably connected to the memory; and a fluid driver operably connected to the flow controller; wherein the memory is operable to receive a selection of one of the first drug library from the first drug library editor and the second drug library from the second drug library editor as the operational drug library, the operational drug library is received from a source drug library editor of any of the first or second drug library editors; and the flow controller is operable to control the fluid driver while the infusion pump is operated in accordance with configuration and operational parameters defined in the received operational drug library, wherein a handshake between the infusion pump and any of the first and second drug library editors identifies said source drug library editor, wherein the operational drug library further contains a configuration setting as to where to accept the next drug library from to migrate the infusion pump from one of the first and second drug library editors to the other one of the first or second drug library editors. a memory operable to store an operational drug library ; a flow controller operably connected to the memory; and a fluid driver operably connected to the flow controller; wherein the memory is operable to receive a selection of one of the first drug library from the first drug library editor and the second drug library from the second drug library editor as the operational drug library, the operational drug library is received from a source drug library editor of any of the first or second drug library editors; and the flow controller is operable to control the fluid driver while the infusion pump is operated in accordance with configuration and operational parameters defined in the received operational drug library, wherein a handshake between the infusion pump and any of the first and second drug library editors identifies said source drug library editor, wherein the operational drug library further contains a configuration setting as to where to accept the next drug library from to migrate the infusion pump from one of the first and second drug library editors to the other one of the first or second drug library editors.
Valve system having at least one open-loop and/or closed-loop control device and at least one electrically actuatable directional valve having an actuator , which is held by means of at least one spring (5.1, 5.2) in a construction location , preferably in a central position, and which can be moved by way of the open-loop and/or closed-loop control device by means of first and second solenoid coils (7.1, 7.2) acting in the opposite direction on the actuator , characterized by a single current measuring device which is provided and designed to measure a total current (I sum ) flowing through the two solenoid coils (7.1, 7.2), wherein the open-loop and/or closed-loop control device is provided and designed to calculate from the measured total current (I sum ) a current (I 1 ) flowing through the first solenoid coil (7.1) and/or a current (I 2 ) flowing through the second solenoid coil (7.2).
An image forming apparatus comprising: an exposure unit configured to emit light according to a drive signal corresponding to input image data; an image bearing member on which an electrostatic latent image is formed by an exposure of the exposure unit ; and a developer carrying member configured to develop the electrostatic latent image on the image bearing member with a developer, the image forming apparatus configured to form an image in a first mode and in a second mode in which the image forming apparatus is operated under an image forming condition in which developer supplying capability from the developer carrying member to the image bearing member is increased to form the image; the image forming apparatus further comprising a determination unit configured to determine whether an input image is an image in a predetermined condition in which the input image is a fine line having a predetermined width or less, a miniature image, or a character having predetermined points or less, wherein an image is determined as the miniature image when the number of pixels determined as edge portions is equal to or larger than a predetermined number in a predetermined size area; and a correction unit configured to correct a line width or density of the second mode by setting a line width thinner or lighten density for an image determined as the image in the predetermined condition by the determination unit at a time of forming the image in the second mode based on a correction amount greater than a correction amount of the first mode. an exposure unit configured to emit light according to a drive signal corresponding to input image data; an image bearing member on which an electrostatic latent image is formed by an exposure of the exposure unit ; and a developer carrying member configured to develop the electrostatic latent image on the image bearing member with a developer, the image forming apparatus configured to form an image in a first mode and in a second mode in which the image forming apparatus is operated under an image forming condition in which developer supplying capability from the developer carrying member to the image bearing member is increased to form the image; the image forming apparatus further comprising a determination unit configured to determine whether an input image is an image in a predetermined condition in which the input image is a fine line having a predetermined width or less, a miniature image, or a character having predetermined points or less, wherein an image is determined as the miniature image when the number of pixels determined as edge portions is equal to or larger than a predetermined number in a predetermined size area; and a correction unit configured to correct a line width or density of the second mode by setting a line width thinner or lighten density for an image determined as the image in the predetermined condition by the determination unit at a time of forming the image in the second mode based on a correction amount greater than a correction amount of the first mode.
A fuel cell comprising: - a stack comprising a plurality of cells aligned along a stack axis X, each cell comprising a plurality of fluid circulation openings , said fluid circulation openings being aligned in parallel to the stack axis X so as to form a plurality of fluid circulation pipings in the stack , - two end plates placed at the ends of the stack along the stack axis X, - at least one traction member connecting the end plates to each other in order to compress the stack , the traction member being mounted in a fluid circulation piping of the stack , which fuel cell is characterized in that each fluid circulation opening of the fluid circulation piping , into which the traction member extends, has two narrow side portions and a widened central portion . - a stack comprising a plurality of cells aligned along a stack axis X, each cell comprising a plurality of fluid circulation openings , said fluid circulation openings being aligned in parallel to the stack axis X so as to form a plurality of fluid circulation pipings in the stack , - two end plates placed at the ends of the stack along the stack axis X, - at least one traction member connecting the end plates to each other in order to compress the stack , the traction member being mounted in a fluid circulation piping of the stack ,
An exhaust manifold for an energy storage device having multiple cells , the exhaust manifold comprising: a plurality of electrical insulation plates arranged in a stacked configuration; and, at least one baffle plate configured between the plurality of stacked electrical insulation plates , wherein the stacked plates are configured to direct airflow from a top surface of the cells towards a bottom side wall of the housing of the energy storage device and then up to an air outlet of the energy storage device so as to provide an airflow barrier between cooling air entering an air inlet of the energy storage device and the cells . a plurality of electrical insulation plates arranged in a stacked configuration; and, at least one baffle plate configured between the plurality of stacked electrical insulation plates , wherein the stacked plates are configured to direct airflow from a top surface of the cells towards a bottom side wall of the housing of the energy storage device and then up to an air outlet of the energy storage device so as to provide an airflow barrier between cooling air entering an air inlet of the energy storage device and the cells .
A connector for a flat flexible cable , comprising: a housing having a plurality of terminal receiving passageways ; a plurality of terminals each having a contact portion held in one of the plurality of terminal receiving passageways and an exposed terminating portion ; and a cover selectively fixable to the housing in a clamping position, the cover including a plurality of clamping elements extending therefrom and configured to simultaneously clamp each of a plurality of conductors of the flat flexible cable within a respective one of the plurality of terminating portions when the cover is fixed to the housing in the clamping position, wherein each of the plurality of clamping elements defines a clamping surface positioned to engage with one of the plurality of conductors arranged within the terminating portion of the terminal , wherein the conductor is clamped between the clamping surface and an opposing surface of the terminating portion with the cover in the clamping position, and wherein the clamping surface comprises a rounded surface for engaging with the conductor , characterised in that the rounded surface defines an axis of curvature extending in a longitudinal direction of the conductor . a housing having a plurality of terminal receiving passageways ; a plurality of terminals each having a contact portion held in one of the plurality of terminal receiving passageways and an exposed terminating portion ; and a cover selectively fixable to the housing in a clamping position, the cover including a plurality of clamping elements extending therefrom and configured to simultaneously clamp each of a plurality of conductors of the flat flexible cable within a respective one of the plurality of terminating portions when the cover is fixed to the housing in the clamping position, wherein each of the plurality of clamping elements defines a clamping surface positioned to engage with one of the plurality of conductors arranged within the terminating portion of the terminal , wherein the conductor is clamped between the clamping surface and an opposing surface of the terminating portion with the cover in the clamping position, and wherein the clamping surface comprises a rounded surface for engaging with the conductor , characterised in that the rounded surface defines an axis of curvature extending in a longitudinal direction of the conductor .
A surgical instrument , comprising: an elastic spine assembly comprising a proximal spine portion and a distal spine portion that is elastically coupled to said proximal spine portion for axial movement relative thereto between a neutral position and an elongated position; a first jaw attached to said distal spine portion; a second jaw movably supported relative to said first jaw for selective movement between open and closed positions relative to said first jaw; a closure system configured to apply a closure motion to said second jaw and to move said distal spine portion from said neutral position to said elongated position upon actuation of the closure system; and a firing system configured to axially advance a firing member from a starting to an ending position within said first jaw upon actuation of the firing system and to enable said distal spine portion to return to said neutral position to thereby increase said closure motion applied to said second jaw. an elastic spine assembly comprising a proximal spine portion and a distal spine portion that is elastically coupled to said proximal spine portion for axial movement relative thereto between a neutral position and an elongated position; a first jaw attached to said distal spine portion; a second jaw movably supported relative to said first jaw for selective movement between open and closed positions relative to said first jaw; a closure system configured to apply a closure motion to said second jaw and to move said distal spine portion from said neutral position to said elongated position upon actuation of the closure system; and a firing system configured to axially advance a firing member from a starting to an ending position within said first jaw upon actuation of the firing system and to enable said distal spine portion to return to said neutral position to thereby increase said closure motion applied to said second jaw.
A suspoemulsion formulation, comprising: (A) a continuous aqueous phase; (B) (i) a dispersed emulsion phase comprising at least one liquid and abamectin; (ii) an emulsifier in a sufficient amount to emulsify the liquid and abamectin; and (C) (i) a dispersed solid phase comprising imidacloprid having an average particle size of less than 1 micron; (ii) at least one dispersing agent in a sufficient amount to disperse imidacloprid and any other solid technical material present in the formulation; wherein the solid phase is dispersed in aqueous and/or emulsion phase. (A) a continuous aqueous phase; (B) (i) a dispersed emulsion phase comprising at least one liquid and abamectin; (ii) an emulsifier in a sufficient amount to emulsify the liquid and abamectin; and (i) a dispersed emulsion phase comprising at least one liquid and abamectin; (ii) an emulsifier in a sufficient amount to emulsify the liquid and abamectin; and (C) (i) a dispersed solid phase comprising imidacloprid having an average particle size of less than 1 micron; (ii) at least one dispersing agent in a sufficient amount to disperse imidacloprid and any other solid technical material present in the formulation; wherein the solid phase is dispersed in aqueous and/or emulsion phase. (i) a dispersed solid phase comprising imidacloprid having an average particle size of less than 1 micron; (ii) at least one dispersing agent in a sufficient amount to disperse imidacloprid and any other solid technical material present in the formulation; wherein the solid phase is dispersed in aqueous and/or emulsion phase.
A method of labeling a DNA at a target sequence, comprising: contacting a DNA comprising a first target sequence with: a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof, incubating the DNA, the first dCas protein, and the first labeled gRNA, whereby the first dCas protein, the DNA, and the first labeled gRNA form a complex wherein the first crRNA is hybridized to the first target sequence or the portion thereof, thereby labeling the DNA at the first target sequence to form a labeled DNA; and labeling the DNA at another target sequence by nick labeling or direct enzyme labeling. a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof, incubating the DNA, the first dCas protein, and the first labeled gRNA, whereby the first dCas protein, the DNA, and the first labeled gRNA form a complex wherein the first crRNA is hybridized to the first target sequence or the portion thereof, thereby labeling the DNA at the first target sequence to form a labeled DNA; and labeling the DNA at another target sequence by nick labeling or direct enzyme labeling.
A composition comprising: asphalt or asphalt mix, wherein polyphosphoric acid is present in the asphalt or asphalt mix; and a dispersion of a hydrogen sulfide scavenger in an organic solvent, wherein the hydrogen sulfide scavenger comprises a copper based compound, wherein the solvent is an aliphatic or aromatic solvent, wherein the solvent further comprises alcohol, wherein the alcohol is not miscible with the aliphatic or aromatic solvent, wherein the dispersion further comprises an organoclay suspension agent and an emulsifier, and wherein the proportion of hydrogen sulfide scavenger is between 0.01% and 5% by weight with respect to the total weight of the asphalt composition.
An anode for an electrochemical cell, said anode comprising: - a lithium metal or lithium metal alloy, and - a polymer coating deposited on the lithium metal or lithium metal alloy, wherein the polymer coating is doped with lithium ions and comprises a polyisocyanurate material, wherein the polyisocyanurate material contains ether- and/or silicone-containing functional groups, and wherein the ether-containing group is a polyether, and/or wherein the silicone-containing group is a siloxane group, in particular a trialkoxysilane group. - a lithium metal or lithium metal alloy, and - a polymer coating deposited on the lithium metal or lithium metal alloy,
A transmitter comprising: a first mapping unit to allocate modulation symbols to orthogonal frequency division multiplexing subcarriers; a first differential block coding unit to perform differential block coding on a part of the modulation symbols allocated; a second differential block coding unit to perform, by using an output of the first differential block coding unit as a start symbol, differential block coding on a remaining modulation symbol excluding the part of the modulation symbols subjected to differential block coding by the first differential block coding unit ; a second mapping unit to convert an output of the second differential block coding unit into a transmit signal that is transmitted from a plurality of antennas , characterized in that the first mapping unit does not allocate a symbol to a position corresponding to the start symbol for the first differential block coding unit ; and wherein the second differential block coding unit uses a differentially block coded symbol generated by the first differential block coding unit as the start symbol, and performs differential block coding in a direction that is either of the frequency direction and the time direction and is different from a direction in which the first differential block coding unit performs differential block coding. a first mapping unit to allocate modulation symbols to orthogonal frequency division multiplexing subcarriers; a first differential block coding unit to perform differential block coding on a part of the modulation symbols allocated; a second differential block coding unit to perform, by using an output of the first differential block coding unit as a start symbol, differential block coding on a remaining modulation symbol excluding the part of the modulation symbols subjected to differential block coding by the first differential block coding unit ; a second mapping unit to convert an output of the second differential block coding unit into a transmit signal that is transmitted from a plurality of antennas , characterized in that the first mapping unit does not allocate a symbol to a position corresponding to the start symbol for the first differential block coding unit ; and wherein the second differential block coding unit uses a differentially block coded symbol generated by the first differential block coding unit as the start symbol, and performs differential block coding in a direction that is either of the frequency direction and the time direction and is different from a direction in which the first differential block coding unit performs differential block coding.
A semiconductor structure, comprising: two or more storage chips , sequentially stacked vertically; a temperature detection unit , configured to detect a temperature of the storage chips before the storage chips initiate; the semiconductor structure further comprises: a control chip , configured to: before the storage chips initiate, heat the storage chips , determine whether the temperature detected by the temperature detection unit reaches a specified threshold, and, in response to the temperature reaching the specified threshold, first control a storage chip closest to the control chip to initiate, and then control other storage chips on the storage chip to sequentially initiate, wherein the two or more storage chips are located on the control chip and electrically connected to the control chip , and wherein the temperature detection unit is electrically connected to the control chip , and is located: in the control chip ; in one of the two or more storage chips ; or on a line substrate between the two or more storage chips and the control chip . two or more storage chips , sequentially stacked vertically; a temperature detection unit , configured to detect a temperature of the storage chips before the storage chips initiate; a control chip , configured to: before the storage chips initiate, heat the storage chips , determine whether the temperature detected by the temperature detection unit reaches a specified threshold, and, in response to the temperature reaching the specified threshold, first control a storage chip closest to the control chip to initiate, and then control other storage chips on the storage chip to sequentially initiate, before the storage chips initiate, heat the storage chips , determine whether the temperature detected by the temperature detection unit reaches a specified threshold, and, in response to the temperature reaching the specified threshold, first control a storage chip closest to the control chip to initiate, and then control other storage chips on the storage chip to sequentially initiate, wherein the two or more storage chips are located on the control chip and electrically connected to the control chip , and wherein the temperature detection unit is electrically connected to the control chip , and is located: in the control chip ; in one of the two or more storage chips ; or on a line substrate between the two or more storage chips and the control chip . in the control chip ; in one of the two or more storage chips ; or on a line substrate between the two or more storage chips and the control chip .