mhurhangee/ep-ind-claims huggingface dataset:
A mannequin for use in hemorrhage training, said mannequin comprising: a body resembling at least a portion of a human body; a container housed within said body, said container capable of holding fluid to simulate a hemorrhage; a flow controller housed within said body and in fluid communication with said container; characterised in that the mannequin further comprises a remote control for controlling the operation of the flow controller; and a plurality of wound sites in fluid communication with said flow controller where each wound site is connected to said flow controller through a conduit for that wound site, the conduit connecting the wound site to a connector of a body part, which connector is designed to attach to a respective connector in a torso area of the mannequin that are in fluid communication with said flow controller. a body resembling at least a portion of a human body; a container housed within said body, said container capable of holding fluid to simulate a hemorrhage; a flow controller housed within said body and in fluid communication with said container; characterised in that the mannequin further comprises a remote control for controlling the operation of the flow controller; and a plurality of wound sites in fluid communication with said flow controller where each wound site is connected to said flow controller through a conduit for that wound site, the conduit connecting the wound site to a connector of a body part, which connector is designed to attach to a respective connector in a torso area of the mannequin that are in fluid communication with said flow controller.
Protection device for a semiconductor switch, wherein a gate of the semiconductor switch can be controlled by a control signal which is provided by a gate driver at the gate of the semiconductor switch via a gate resistor, having first overvoltage protection which is configured to control the semiconductor switch for a predetermined period if a voltage (U CE) between a collector and an emitter of the semiconductor switch exceeds a first threshold value; second overvoltage protection which is configured to control the semiconductor switch if the voltage (U CE) across the semiconductor switch exceeds a second threshold value; and having a switching detector which is configured to detect a switch-off process at the semiconductor switch on the basis of a voltage drop across the gate resistor, to change the first overvoltage protection to an active state by means of transistors (T30, T31) if the semiconductor switch is opened, and to an inactive state as long as the semiconductor switch is closed or completely open, wherein the first overvoltage protection has a first semiconductor component which reversibly changes from an off state to an on state if the voltage (U CE) across the semiconductor switch exceeds the first threshold value and which is arranged between the collector of the semiconductor switch and the gate of the semiconductor switch, the second overvoltage protection has a second semiconductor component which reversibly changes from an off state to an on state if the voltage (U CE) across the semiconductor switch exceeds the second threshold value and which is arranged between the collector of the semiconductor switch and the gate of the semiconductor switch in parallel with the semiconductor component of the first overvoltage protection.
A magnetic resonance imaging system (100, 600) for generating information indicative of a fluid flow, the MRI system comprising at least one controller (104, 610) configured to control the MRI system to: determine or obtain one or more acoustical resonance frequencies of the MR system (100, 600); generate a pseudo-continuous arterial spin labeling (pCASL) pulse sequence comprising at least a gradient pulse sequence having a sinusoidal waveform comprising a plurality of cycles, and a radio frequency pulse sequence comprising a waveform having a plurality of cycles and which is synchronous with the GR pulse sequence, wherein the sinusoidal waveform of the GR pulse sequence has a fixed frequency which is set in accordance with the determined or obtained one or more acoustica resonance frequencies of the MRI system (100, 600) such that the set fixed frequency is not substantially equal to the one or more acoustical resonance frequencies or multiples thereof of the MRI system; label at least part of the fluid flow in a labeling region during a labeling mode using the pCASL pulse sequence; acquire label and control image information of the fluid flow at an imaging region downstream of the labeling region; and generate image information in accordance with a difference of the acquired label and control image information. determine or obtain one or more acoustical resonance frequencies of the MR system (100, 600); generate a pseudo-continuous arterial spin labeling (pCASL) pulse sequence comprising at least a gradient pulse sequence having a sinusoidal waveform comprising a plurality of cycles, and a radio frequency pulse sequence comprising a waveform having a plurality of cycles and which is synchronous with the GR pulse sequence, wherein the sinusoidal waveform of the GR pulse sequence has a fixed frequency which is set in accordance with the determined or obtained one or more acoustica resonance frequencies of the MRI system (100, 600) such that the set fixed frequency is not substantially equal to the one or more acoustical resonance frequencies or multiples thereof of the MRI system; label at least part of the fluid flow in a labeling region during a labeling mode using the pCASL pulse sequence; acquire label and control image information of the fluid flow at an imaging region downstream of the labeling region; and generate image information in accordance with a difference of the acquired label and control image information.
A hemostatic device comprising: a covering member configured to be disposed on a finger of a patient to cover a site on a dorsal side (Hb) of a hand of the patient where bleeding is to be stopped; a pressing member configured to compress the site where the bleeding is to be stopped in a state where the covering member covers the site where the bleeding is to be stopped; and a linear member (150, 150A, 150B) configured to secure the covering member to the patient and constituted by a string-shaped member having a predetermined length and a predetermined outer diameter, wherein the covering member has a hole portion into which the linear member (150, 150A, 150B) is inserted, wherein the linear member (150, 150A, 150B) has a connection portion which is connected to the covering member, wherein the linear member (150, 150A, 150B) is configured to form a space into which a portion of the linear member (150, 150A, 150B) can be inserted between the covering member and the linear member (150, 150A, 150B) to secure the covering member to the hand of the patient in a state where the linear member (150, 150A, 150B) is inserted into the hole portion, and wherein the pressing member is disposed on a distal side of the covering member relative to a virtual line passing through the hole portion and the connection portion. a covering member configured to be disposed on a finger of a patient to cover a site on a dorsal side (Hb) of a hand of the patient where bleeding is to be stopped; a pressing member configured to compress the site where the bleeding is to be stopped in a state where the covering member covers the site where the bleeding is to be stopped; and a linear member (150, 150A, 150B) configured to secure the covering member to the patient and constituted by a string-shaped member having a predetermined length and a predetermined outer diameter, wherein the covering member has a hole portion into which the linear member (150, 150A, 150B) is inserted, wherein the linear member (150, 150A, 150B) has a connection portion which is connected to the covering member, wherein the linear member (150, 150A, 150B) is configured to form a space into which a portion of the linear member (150, 150A, 150B) can be inserted between the covering member and the linear member (150, 150A, 150B) to secure the covering member to the hand of the patient in a state where the linear member (150, 150A, 150B) is inserted into the hole portion, and wherein the pressing member is disposed on a distal side of the covering member relative to a virtual line passing through the hole portion and the connection portion.
An apparatus for the conveying of plastics material pre-forms along a pre-set conveying path with a first guide rail for guiding the plastics material pre-forms, with a second guide rail for guiding the plastics material pre-forms, wherein the plastics material pre-forms are capable of being guided between the guide rails (2, 4) and the guide rails (2, 4) have in each case first support faces (12, 14) which extend along the conveying path and which support the plastics material pre-forms during the conveying thereof, wherein the apparatus has a stressing device (42, 44) for acting upon the plastics material pre-forms with a gaseous medium, which stressing device (42, 44) is designed in such a way that the plastics material pre-forms are conveyed along their conveying path by being acted upon with the gaseous medium, and wherein a geometrical position of the guide rails is capable of being altered with respect to each other, characterized in that at least one guide rail (2, 4) for changing the geometrical position is pivotable about a pivot axis (S1, S2) which extends parallel to the conveying path of the plastics material pre-forms.
A method comprising: obtaining a first plurality of signals associated with a fluid flow in a pipe; processing, by a processor, the first plurality of signals to obtain a first plot of power associated with first vortices in the fluid flow and a flow rate of the fluid flow in the pipe over a first flow rate range; characterised in that the method further comprises: determining, by the processor, that a maximum value of the power in the first plot corresponds to a maximum value of the flow rate included in the first flow rate range or that the power is increasing as a function of the flow rate towards an end of the first plot; and based on said determining, multiplying, by the processor, values of the first flow rate range to obtain a second flow rate range. obtaining a first plurality of signals associated with a fluid flow in a pipe; processing, by a processor, the first plurality of signals to obtain a first plot of power associated with first vortices in the fluid flow and a flow rate of the fluid flow in the pipe over a first flow rate range; characterised in that the method further comprises: determining, by the processor, that a maximum value of the power in the first plot corresponds to a maximum value of the flow rate included in the first flow rate range or that the power is increasing as a function of the flow rate towards an end of the first plot; and based on said determining, multiplying, by the processor, values of the first flow rate range to obtain a second flow rate range.
An ester-based plasticizer composition comprising an ester-based compound represented by the following Chemical Formula 1, an ester-based compound represented by the following Chemical Formula 2 and an ester-based compound represented by the following Chemical Formula 3:
An anchoring device for anchoring an implantable medical device to tissue of a patient, the anchoring device comprising: - a mount, wherein the mount is an annular member; and - at least one tine connected to the mount and protruding from the mount, characterized in that the mount comprises at least one marker that can be detected by an imaging method, wherein the at least one marker is a radiopaque marker that is configured to be detected by an x-ray imaging method. - a mount, wherein the mount is an annular member; and - at least one tine connected to the mount and protruding from the mount, characterized in that the mount comprises at least one marker that can be detected by an imaging method, wherein the at least one marker is a radiopaque marker that is configured to be detected by an x-ray imaging method.
An agricultural distribution machine for spreading liquid and/or solid plant protection products by means of a distribution apparatus, which is arranged to be height-adjustable on a frame of the distribution machine, and which is equipped with a plurality of nozzle holders (28, 28'), which are in each case spaced apart from each other, wherein each of the nozzle holders (28, 28') in each case has at least one spray nozzle for distributing the plant protection product to be spread, characterised in that the activation of the distribution apparatus or the distribution of the plant protection products is carried out based on at least two spray profiles stored in a computer unit, which spray profiles each comprise or take into account at least three parameters and/or sensor values, wherein a spray profile is composed of at least a nozzle profile and an associated pressure range and an associated height control, and wherein, in the instance of a deviation of at least one parameter or of one sensor value of a first spray profile, an automated activation of the distribution apparatus is carried out based on the parameters of the at least one second other, previously selected spray profile, in which the parameters are defined differently.
A folding apparatus for folding absorbent sanitary articles having an absorbent central body and two wings projecting from opposite side edges of said absorbent central body, comprising: - a vacuum conveyor comprising a conveyor belt, which holds the absorbent central bodies of said absorbent sanitary articles and moves said absorbent sanitary articles in a longitudinal direction, and - a pair of stationary folding elements that engage respective wings of said absorbent sanitary articles while they are moved in said longitudinal direction by said vacuum conveyor, characterized in that said conveyor belt comprises a plurality of recessed seats which receive the absorbent central bodies of said absorbent sanitary articles, said recessed seats having a shape such that said wings extend laterally outwards from said recessed seats on an outer surface of said conveyor belt. - a vacuum conveyor comprising a conveyor belt, which holds the absorbent central bodies of said absorbent sanitary articles and moves said absorbent sanitary articles in a longitudinal direction, and - a pair of stationary folding elements that engage respective wings of said absorbent sanitary articles while they are moved in said longitudinal direction by said vacuum conveyor,
A cloud streaming server comprising: a changed region determining unit configured to determine a changed region of a current frame changed from a previous frame by comparing the current frame with the previous frame; a capture unit configured to capture the changed region; an encoding unit configured to perform a still image encoding of the changed region by using a still image compression technique; and a sending unit configured to perform a cloud streaming service based on a still image by sending the still-image-encoded changed region to a user, wherein the encoding unit selects the still image compression technique in accordance with an image type determined by considering the number of colors of an image corresponding to the changed region and a standard deviation of pixel values of the image corresponding to the changed region. a changed region determining unit configured to determine a changed region of a current frame changed from a previous frame by comparing the current frame with the previous frame; a capture unit configured to capture the changed region; an encoding unit configured to perform a still image encoding of the changed region by using a still image compression technique; and a sending unit configured to perform a cloud streaming service based on a still image by sending the still-image-encoded changed region to a user, wherein the encoding unit selects the still image compression technique in accordance with an image type determined by considering the number of colors of an image corresponding to the changed region and a standard deviation of pixel values of the image corresponding to the changed region.
Composition comprising: a) 0.1 to 70 weight-% based on the composition of one or more fat-soluble active ingredients selected from the group consisting of lipophilic health ingredients; carotenoids as well as mixtures thereof; b) one or more plant protein(s) selected from the group consisting of soy protein, lupin protein, pea protein and potato protein.; and c) one or more soy soluble polysaccharide(s); wherein the lipophilic health ingredient(s) (one or more compounds) are selected from the group consisting of resveratrol; ligusticum; ubichinones and/or ubiquinols (one or more components), preferred coenzyme Q 10, coenzyme Q 9, and/or their reduced forms (the corresponding ubiquinols); genistein and alpha-lipoic acid, and wherein the sum of the amount of protein(s) and the amount of polysaccharide(s) represents 10 to 85 weight-% based on the composition in dry matter and, wherein the weight ratio of protein(s) to polysaccharide(s) is chosen like 1: b with the proviso that b is comprised between 0.5 and 15. a) 0.1 to 70 weight-% based on the composition of one or more fat-soluble active ingredients selected from the group consisting of lipophilic health ingredients; carotenoids as well as mixtures thereof; b) one or more plant protein(s) selected from the group consisting of soy protein, lupin protein, pea protein and potato protein.; and c) one or more soy soluble polysaccharide(s);
An implant comprising: a freeze-dried porous cellulose substrate having a first hydrogel precursor comprising collagen and basic salts applied to a first portion of the porous substrate; and a second hydrogel precursor comprising a multi-armed electrophilic PEG dry coated to a second portion of the porous substrate, wherein the first portion of the substrate is spatially separated from the second portion of the porous substrate. a freeze-dried porous cellulose substrate having a first hydrogel precursor comprising collagen and basic salts applied to a first portion of the porous substrate; and a second hydrogel precursor comprising a multi-armed electrophilic PEG dry coated to a second portion of the porous substrate, wherein the first portion of the substrate is spatially separated from the second portion of the porous substrate.
A method for producing a physically stable composition comprising an isolated alkaline phosphatase, the method comprising - the dissolution or dilution of an AP in a buffer, resulting in a composition having a pH of between 6.5 and 7.5 and comprising - between 200 - 300 mM sorbitol, and - between 5 - 40 mM histidine and/or between 10 - 40 mM citrate. - the dissolution or dilution of an AP in a buffer, resulting in a composition having a pH of between 6.5 and 7.5 and comprising - between 200 - 300 mM sorbitol, and - between 5 - 40 mM histidine and/or between 10 - 40 mM citrate. - between 200 - 300 mM sorbitol, and - between 5 - 40 mM histidine and/or between 10 - 40 mM citrate.
A molecular analysis device for a biological material comprises: - a laser, optionally assisted with an optical parametric oscillator, configured for emitting a wavelength comprised between 2.5 μm and 12 μm, said thereby configured laser being intended to ablate said biological material by ejecting charged and/or non-charged particles; - a mass spectrometer; and - a probe (S, 10) including: ∘ at least one first analysis fiber (A, 14), and ∘ a transfer tube (T, 21), said at least one first analysis fiber (A, 14) being connected to the laser and said transfer tube being connected to the mass spectrometer. - a laser, optionally assisted with an optical parametric oscillator, configured for emitting a wavelength comprised between 2.5 μm and 12 μm, said thereby configured laser being intended to ablate said biological material by ejecting charged and/or non-charged particles; - a mass spectrometer; and - a probe (S, 10) including: ∘ at least one first analysis fiber (A, 14), and ∘ a transfer tube (T, 21), ∘ at least one first analysis fiber (A, 14), and ∘ a transfer tube (T, 21),
A method for preparing an alkoxylated Bisphenol A composition comprising residual Bisphenol A in an amount of more than 0 and less than 100 ppm, comprising the sequential steps of: (a) reacting Bisphenol A with a first amount of alkylene oxide in the presence of at least one alkaline catalyst at a temperature of 90-200°C and a pressure of 34.4-1101.7 kPa (5-160 psi) to form a mixture; (b) allowing the reaction to equilibrate for 1-6 h, (c) reacting the mixture with a second amount of alkylene oxide in the presence of at least one alkaline catalyst at a temperature of 90-200°C and a pressure of 34.4-1101.7 kPa (5-160 psi); and (d) allowing the mixture to cool. (a) reacting Bisphenol A with a first amount of alkylene oxide in the presence of at least one alkaline catalyst at a temperature of 90-200°C and a pressure of 34.4-1101.7 kPa (5-160 psi) to form a mixture; (b) allowing the reaction to equilibrate for 1-6 h, (c) reacting the mixture with a second amount of alkylene oxide in the presence of at least one alkaline catalyst at a temperature of 90-200°C and a pressure of 34.4-1101.7 kPa (5-160 psi); and (d) allowing the mixture to cool.
An apparatus (132, 400) comprising: memory; instructions in the apparatus; and processor circuitry to execute the instructions to: decrypt a first message received from a first radio of an aircraft, the first radio using a first communication protocol, the aircraft including a second radio to be configured for a second communication protocol different from the first communication protocol; and in response to a determination that the first message includes radio configuration information associated with the second radio, configure a third radio (116, 118) to transmit a second message to the second radio based on the radio configuration information; wherein the first communication protocol is a public communication protocol associated with a first bandwidth and the second communication protocol is a private communication protocol associated with a second bandwidth. memory; instructions in the apparatus; and processor circuitry to execute the instructions to: decrypt a first message received from a first radio of an aircraft, the first radio using a first communication protocol, the aircraft including a second radio to be configured for a second communication protocol different from the first communication protocol; and in response to a determination that the first message includes radio configuration information associated with the second radio, configure a third radio (116, 118) to transmit a second message to the second radio based on the radio configuration information; wherein the first communication protocol is a public communication protocol associated with a first bandwidth and the second communication protocol is a private communication protocol associated with a second bandwidth. decrypt a first message received from a first radio of an aircraft, the first radio using a first communication protocol, the aircraft including a second radio to be configured for a second communication protocol different from the first communication protocol; and in response to a determination that the first message includes radio configuration information associated with the second radio, configure a third radio (116, 118) to transmit a second message to the second radio based on the radio configuration information; wherein the first communication protocol is a public communication protocol associated with a first bandwidth and the second communication protocol is a private communication protocol associated with a second bandwidth.