mhurhangee/patent-ind-claim-en huggingface dataset:
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained on the cartridge body and configured to be delivered to lung tissue by deployment of the staples in the cartridge body to form at least one line of deployed staples; and an effective amount of at least one medicant, the at least one medicant being disposed within and releasable from the adjunct material, the at least one medicant being effective to induce tissue adhesions adjacent the least one line of deployed staples. a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained on the cartridge body and configured to be delivered to lung tissue by deployment of the staples in the cartridge body to form at least one line of deployed staples; and an effective amount of at least one medicant, the at least one medicant being disposed within and releasable from the adjunct material, the at least one medicant being effective to induce tissue adhesions adjacent the least one line of deployed staples.
Method of making and/or isolating isoidide of formula I comprising the following steps: M3) providing or preparing a mixture of compounds of formula II comprising isoidide and one or both compounds selected from the group consisting of isosorbide and isomannide, M4) subjecting the mixture of compounds of formula II from step M3) to conditions of a selective esterification, so that a mixture comprising non-esterified isoidide and one or both compounds selected from the group consisting of esterified isosorbide and esterified isomannide are received, wherein the selective esterification - is performed in the presence of a metal catalyst and - comprises reacting the mixture of compounds of formula II with a reagent selected from the group consisting of carboxylic acid anhydrides wherein the carboxylic acid or carboxylic acids forming the carboxylic acid anhydride in each case are selected from the group consisting of carboxylic acids comprising a total number of carbon atoms in the range of from 2 to 8, and M5) separating non-esterified isoidide from the mixture comprising non-esterified isoidide and one or both compounds selected from the group consisting of esterified isosorbide and esterified isomannide received in step M4), to obtain and/or isolate non-esterified isoidide. M3) providing or preparing a mixture of compounds of formula II comprising isoidide and one or both compounds selected from the group consisting of isosorbide and isomannide, M4) subjecting the mixture of compounds of formula II from step M3) to conditions of a selective esterification, so that a mixture comprising non-esterified isoidide and one or both compounds selected from the group consisting of esterified isosorbide and esterified isomannide are received, wherein the selective esterification - is performed in the presence of a metal catalyst and - comprises reacting the mixture of compounds of formula II with a reagent selected from the group consisting of carboxylic acid anhydrides wherein the carboxylic acid or carboxylic acids forming the carboxylic acid anhydride in each case are selected from the group consisting of carboxylic acids comprising a total number of carbon atoms in the range of from 2 to 8, - is performed in the presence of a metal catalyst and - comprises reacting the mixture of compounds of formula II with a reagent selected from the group consisting of carboxylic acid anhydrides wherein the carboxylic acid or carboxylic acids forming the carboxylic acid anhydride in each case are selected from the group consisting of carboxylic acids comprising a total number of carbon atoms in the range of from 2 to 8, and M5) separating non-esterified isoidide from the mixture comprising non-esterified isoidide and one or both compounds selected from the group consisting of esterified isosorbide and esterified isomannide received in step M4), to obtain and/or isolate non-esterified isoidide.
Long range laser illuminator comprising a matrix of infrared emitters with high brightness each one able to emit a first beam , means able to convert the first beams produced by the emitters placed in front and near the matrix and able to merge these first laser beams into a second unique and homogeneous beam , these means consisting of a prism made of solid transparent material and comprising a first plane surface placed in front of the matrix , the first surface having the same dimensions as the emitting surface of the matrix augmented by an excess thickness to couple all beams of the matrix into the prism ; a second surface placed in front of a collimator lens of smaller section than the first surface and from where the second beam is emitted , plane lateral surfaces, namely two lateral surfaces of rectangular section and placed along the rapid axis Y and two lateral surfaces of trapezoidal section and placed on the slow axis X; the X and the Y-axis being perpendicular to the beam axes, each of the edges formed by the junction of two adjacent lateral surfaces and forming an angle α with the Z axis measuring less than 15°, perpendicular to axis x and axis y so that over the entire length of the prism , the angle of incidence of the first beams, depending on the slow axis compared to the normal of said lateral surfaces , is superior to the critical angle of total reflection.
A hand-guided machine tool, in particular a hand-guided oscillation machine tool with an outer housing which extends essentially along a longitudinal axis and which has a gripping region which is provided for a hand of a user to grip around and to guide the machine tool , an electric drive unit essentially accommodated in this outer housing , which electric drive unit drives a drive shaft of the machine tool in a rotating manner, wherein the axis of rotation of the drive shaft is oriented essentially parallel to, or coincides with, the longitudinal axis of the outer housing , and a tool device which is essentially rigidly coupled to the electric drive unit and which is arranged in an end region of the outer housing , wherein the outer housing has a defined inner contour , wherein the electric drive unit and the tool device , insofar as they are arranged in the region of the outer housing , have a defined outer contour , wherein this outer contour and the inner contour of the outer housing have a predetermined minimum distance from one another, and wherein a number N of first support devices are provided on the outer contour and a number N of second support devices are provided on the inner contour in order to maintain this minimum distance, wherein the first support devices and the second support devices cooperate in order to keep the outer contour and the inner contour at this minimum distance from one another, wherein between a first support device and a respective second support device , at least one force transmission element is arranged which, on the one hand, is elastically deformable, but which, on the other hand, opposes the deformation by means of an internal frictional resistance leading to damping, characterized in that the force transmission element is flat in the unassembled state and, in the pretensioned state, assumes a bowl-like shape between the first and second support devices .
A dry composition, comprising at least one strain of bacteria that produces chitinase; a bacterial nutrient source; a nitrogen-containing compound; a phosphate-containing compound; a magnesium-containing compound; a buffer; and a chitinase inducer; wherein the at least one strain of bacteria comprises B . licheniformis, B. pumilus, and B . amyloliquefaciens.
An implantable direct-current electrode assembly with two implantable electrodes and a control unit , to which the first and the second electrodes are electrically connected through leads, wherein the control unit is configured to establish a potential difference between the two electrodes , so that a direct current can flow between the two electrodes , wherein the first electrode is a coil electrode configured to be provided in the right half of the heart and has a predetermined length, and wherein the second electrode is a counter-electrode , wherein this counter-electrode is a coil electrode having an electrode portion configured to be positioned in the coronary sinus, characterized in that the coil electrode is configured to be positioned in the coronary sinus at the height of the left atrium and that beyond the electrode portion of the coil electrode is attached an isolated anchoring portion extending beyond the electrode portion ending in a tip with a predetermined length of the isolated anchoring portion to follow the bend of the vena cardiaca magna into the direction of the left ventricle .
An isolated capsid polypeptide, comprising the sequence of amino acids set forth in SEQ ID NO:2 or a sequence having at least 95% sequence identity to the sequence set forth in SEQ ID NO:2.
A fishing reel comprising: a drive shaft that is rotationally driven by a rotation operation of a handle rotatably supported on a reel body ; and a one-way clutch that is disposed on the drive shaft and has an inner ring , an outer ring , and a holder holding a plurality of rolling members , wherein the outer ring is provided with a stopper protruding radially outward. and the reel body is provided with an abutting portion that abuts on the outer ring at two points on both side surfaces of the stopper to restrict rotation of the outer ring, and an anticorrosion plate comprising a leg portion interposed between the stopper and an abutment portion of the abutting portion is disposed to overlap the one-way clutch in an axial direction. a drive shaft that is rotationally driven by a rotation operation of a handle rotatably supported on a reel body ; and a one-way clutch that is disposed on the drive shaft and has an inner ring , an outer ring , and a holder holding a plurality of rolling members , wherein the outer ring is provided with a stopper protruding radially outward. and the reel body is provided with an abutting portion that abuts on the outer ring at two points on both side surfaces of the stopper to restrict rotation of the outer ring, and an anticorrosion plate comprising a leg portion interposed between the stopper and an abutment portion of the abutting portion is disposed to overlap the one-way clutch in an axial direction.
A method for unicast transmission of cellular vehicle-to-everything, C-V2X, Internet Protocol, IP, packets performed by a modem of a vehicle, comprising: receiving a flow registration associating one or more source port and destination IP address pairings with respective destination layer 2, L2, addresses, wherein the flow registration associates one or more flow attributes with each respective destination L2 address; caching the flow registration in a memory available to the modem; receiving a unicast C-V2X IP packet, wherein an IP header of the unicast C-V2X IP packet indicates a source port and a destination IP address; comparing the indicated source port and the indicated destination IP address to the cached flow registration to determine a matching source port and destination IP address pairing; determining a destination L2 address as the respective destination L2 address associated with the matching source port and destination IP address pairing in the cached flow registration; adding a Packet Data Convergence Protocol, PDCP, header indicating the determined destination L2 address to the unicast C-V2X IP packet; determining the one or more flow attributes associated with the determined destination L2 address based at least in part on the flow registration; and sending the unicast C-V2X IP packet to the determined destination L2 address according to the determined one or more flow attributes. receiving a flow registration associating one or more source port and destination IP address pairings with respective destination layer 2, L2, addresses, wherein the flow registration associates one or more flow attributes with each respective destination L2 address; caching the flow registration in a memory available to the modem; receiving a unicast C-V2X IP packet, wherein an IP header of the unicast C-V2X IP packet indicates a source port and a destination IP address; comparing the indicated source port and the indicated destination IP address to the cached flow registration to determine a matching source port and destination IP address pairing; determining a destination L2 address as the respective destination L2 address associated with the matching source port and destination IP address pairing in the cached flow registration; adding a Packet Data Convergence Protocol, PDCP, header indicating the determined destination L2 address to the unicast C-V2X IP packet; determining the one or more flow attributes associated with the determined destination L2 address based at least in part on the flow registration; and sending the unicast C-V2X IP packet to the determined destination L2 address according to the determined one or more flow attributes.
An apparatus to deliver a variable flow of oxygen to a patient, the apparatus comprising: a flow control valve to deliver a flow of oxygen through an oxygen delivery device ; a pressure sensor to detect a breathing pressure of the patient and provide a plurality of breathing pressure values, and to measure ambient pressure and provide an ambient pressure value, the pressure sensor in communication with a processor , the processor programmed to receive the plurality of breathing pressure values and the ambient pressure value; the processor programmed to analyze the plurality of breathing pressure values to determine if the patient is inhaling or not inhaling, and the processor further programmed to calculate an amount of oxygen to deliver to the patient during a predetermined time frame characterized in that ; the processor programmed to track any backlog of oxygen, the backlog being oxygen that is to be delivered during a predetermined time frame but has not been delivered, the processor is further programmed to increment the oxygen backlog for the next predetermined time frame by this amount of oxygen that has not been delivered during the predetermined time frame; and the processor programmed to open the flow control valve when the processor determines the patient is inhaling and the oxygen backlog is greater than zero. a flow control valve to deliver a flow of oxygen through an oxygen delivery device ; a pressure sensor to detect a breathing pressure of the patient and provide a plurality of breathing pressure values, and to measure ambient pressure and provide an ambient pressure value, the pressure sensor in communication with a processor , the processor programmed to receive the plurality of breathing pressure values and the ambient pressure value; the processor programmed to analyze the plurality of breathing pressure values to determine if the patient is inhaling or not inhaling, and the processor further programmed to calculate an amount of oxygen to deliver to the patient during a predetermined time frame characterized in that ; the processor programmed to track any backlog of oxygen, the backlog being oxygen that is to be delivered during a predetermined time frame but has not been delivered, the processor is further programmed to increment the oxygen backlog for the next predetermined time frame by this amount of oxygen that has not been delivered during the predetermined time frame; and the processor programmed to open the flow control valve when the processor determines the patient is inhaling and the oxygen backlog is greater than zero.
A device for detecting chemical, biochemical, medical and/or physical reactions, binding and/or addition processes and other interactions by determining the interaction of capture molecules on a thin, transparent layer with species in a sample, thereby effecting a change in layer thickness in the area of the interaction, with at least one light source emitting light of at least a narrow wavelength range, wherein the light source is arranged such that the light is radiated on an at least partially transparent carrier having a plurality of mutually spaced sections of the thin, transparent layer, and with at least one detector , at least one reference detector of an evaluation unit in which at least one lookup table is stored, and a comparator , wherein the detector is arranged in such a way that it detects interferences at the sections of the thin, transparent layer as relative intensity of superposition waves and outputs them as a detector signal, and wherein the reference detector is arranged such that it detects a time-variable course of the incident light and outputs it as a reference detector signal, and wherein the comparator is configured to receive the detector signal and the reference detector signal and by forming the ratio of the detector signal and the reference detector signal of the intensity of the incident light in each case to form independent relative signals and therefrom reflection and/or transmission coefficients of the sections, to determine optical layer thicknesses of the sections from the reflection and/or transmission coefficients in conjunction with the look-up table, and to determine corresponding layer thickness changes of the sections therefrom.
A vehicle front portion structure comprising: a battery accommodating portion that is to be disposed at a vehicle lower side of a vehicle cabin , and in which a battery is to be accommodated; a suspension member that is provided further toward a vehicle front side than the battery accommodating portion , and that has a pair of side rails that are disposed with an interval therebetween in a vehicle transverse direction and that extend in a vehicle longitudinal direction; and connecting members that connect rear portions of the side rails and a front portion of the battery accommodating portion , and at which are formed deforming portions that, due to input of collision load to the side rails from a vehicle front side, are configured to deform such that the rear portions of the side rails move toward a vehicle lower side with respect to the front portion of the battery accommodating portion , the connecting members being formed by members having higher ductility than the side rails . a battery accommodating portion that is to be disposed at a vehicle lower side of a vehicle cabin , and in which a battery is to be accommodated; a suspension member that is provided further toward a vehicle front side than the battery accommodating portion , and that has a pair of side rails that are disposed with an interval therebetween in a vehicle transverse direction and that extend in a vehicle longitudinal direction; and connecting members that connect rear portions of the side rails and a front portion of the battery accommodating portion , and at which are formed deforming portions that, due to input of collision load to the side rails from a vehicle front side, are configured to deform such that the rear portions of the side rails move toward a vehicle lower side with respect to the front portion of the battery accommodating portion , the connecting members being formed by members having higher ductility than the side rails .
A method for transmitting an uplink Hybrid ARQ ACKnowledgement, HARQ-ACK, in a wireless communication system, performed by a User Equipment, UE, the method comprising: receiving a first UpLink-DownLink, UL-DL, configuration via system information block, receiving a downlink, DL, signal in subframe n-k; and transmitting an HARQ-ACK for DL signals including the DL signal in a subframe n, wherein Physical Uplink Control Channel, PUCCH, resources for the HARQ-ACK in the subframe n are allocated with a higher priority to DL subframes for which HARQ-ACKs are to be transmitted in the subframe n according to the first UL-DL configuration and a second UL-DL configuration than to DL subframes uncommon to the first UL-DL configuration and the second UL-DL configuration among DL subframes for which HARQ-ACKs are to be transmitted in the subframe n according to the second UL-DL configuration, when the UE determines PUCCH resource for the HARQ-ACK according to the second UL-DL configuration, characterized in that the method further comprises: PUCCH resources for the HARQ-ACK in first DL subframes which are not allowed to be used as HARQ-ACK transmission UL subframe among the DL subframes uncommon to the first UL-DL configuration and the second UL-DL configuration are allocated with a higher priority than PUCCH resources for the HARQ-ACK in second DL subframes which are allowed to be used as HARQ-ACK transmission UL subframe among the DL subframes uncommon to the first UL-DL configuration and the second UL-DL configuration. receiving a first UpLink-DownLink, UL-DL, configuration via system information block, receiving a downlink, DL, signal in subframe n-k; and transmitting an HARQ-ACK for DL signals including the DL signal in a subframe n, wherein Physical Uplink Control Channel, PUCCH, resources for the HARQ-ACK in the subframe n are allocated with a higher priority to DL subframes for which HARQ-ACKs are to be transmitted in the subframe n according to the first UL-DL configuration and a second UL-DL configuration than to DL subframes uncommon to the first UL-DL configuration and the second UL-DL configuration among DL subframes for which HARQ-ACKs are to be transmitted in the subframe n according to the second UL-DL configuration, when the UE determines PUCCH resource for the HARQ-ACK according to the second UL-DL configuration, characterized in that the method further comprises: PUCCH resources for the HARQ-ACK in first DL subframes which are not allowed to be used as HARQ-ACK transmission UL subframe among the DL subframes uncommon to the first UL-DL configuration and the second UL-DL configuration are allocated with a higher priority than PUCCH resources for the HARQ-ACK in second DL subframes which are allowed to be used as HARQ-ACK transmission UL subframe among the DL subframes uncommon to the first UL-DL configuration and the second UL-DL configuration.
Actuating means arrangement with an actuating means for actuating a closing mechanism of a component, wherein the actuating means comprises: - an acceleration sensor for measurement of an acceleration, which acts on the actuating means and for output of first measurement values; - a rotation rate sensor for measurement of an angular velocity about a rotation axis and for output of second measurement values, and the actuating means arrangement further comprises: - a determination unit , which is configured - for determination of a state of the closing mechanism by means of determination of the spatial position of the actuating means based on the first measurement values of the acceleration sensor , and - for determination of an opening angle of the component based on the second measurement values of the rotation rate sensor . - an acceleration sensor for measurement of an acceleration, which acts on the actuating means and for output of first measurement values; - a rotation rate sensor for measurement of an angular velocity about a rotation axis and for output of second measurement values, and - a determination unit , which is configured - for determination of a state of the closing mechanism by means of determination of the spatial position of the actuating means based on the first measurement values of the acceleration sensor , and - for determination of an opening angle of the component based on the second measurement values of the rotation rate sensor . - for determination of a state of the closing mechanism by means of determination of the spatial position of the actuating means based on the first measurement values of the acceleration sensor , and - for determination of an opening angle of the component based on the second measurement values of the rotation rate sensor .