mhurhangee/ep-ind-claims huggingface dataset:
A system for evaluating heat and humidity comfort level of textiles proximal a subject during sleeping, comprising: a bed-shaped partitioned platform comprising one or more non-temperature and non-humidity-controllable sections and one or more temperature and humidity controllable sections which define a micro environment therein; a controllable temperature and humidity test chamber; one or more temperature and humidity control machines in communication with the one or more temperature and humidity controllable sections respectively for supplying air with pre-set temperature and humidity via one or more ventilation pipelines, characterized in that air outlets of the one or more ventilation pipelines respectively correspond to and are in communication with one or more lower-layer air inlets arranged at the bottom of the bed-shaped partitioned platform, and the one or more lower-layer air inlets are respectively in communication with one or more section diffusers arranged thereabove; and a heat dissipation polyester layer is arranged close to and above the one or more section diffusers, an upper-layer return air passage is arranged above the heat dissipation polyester layer, and the upper-layer return air passage is in communication with the controllable temperature and humidity test chamber; and a central controller electrically connected to the one or more temperature and humidity control machines. a bed-shaped partitioned platform comprising one or more non-temperature and non-humidity-controllable sections and one or more temperature and humidity controllable sections which define a micro environment therein; a controllable temperature and humidity test chamber; one or more temperature and humidity control machines in communication with the one or more temperature and humidity controllable sections respectively for supplying air with pre-set temperature and humidity via one or more ventilation pipelines, characterized in that air outlets of the one or more ventilation pipelines respectively correspond to and are in communication with one or more lower-layer air inlets arranged at the bottom of the bed-shaped partitioned platform, and the one or more lower-layer air inlets are respectively in communication with one or more section diffusers arranged thereabove; and a heat dissipation polyester layer is arranged close to and above the one or more section diffusers, an upper-layer return air passage is arranged above the heat dissipation polyester layer, and the upper-layer return air passage is in communication with the controllable temperature and humidity test chamber; and a central controller electrically connected to the one or more temperature and humidity control machines.
An electric engine start system comprising: alternating current input lines for carrying AC power; a rectifier connected to the AC input lines; a direct current link capacitor connected to the rectifier; and a PWM inverter connected to the DC link capacitor for converting DC power provided by the rectifier to AC power provided to an AC motor; characterised by comprising: a capacitor (C 1,C 2,C 3) connected to each AC input line for measuring current and voltage on that AC input line; a PWM rectifier controller that controls the rectifier to minimize harmonics at the DC link capacitor in a first mode in which power is provided to the AC motor, and controls the PWM rectifier to minimize harmonics on the AC input lines in a second mode based on present voltage and current values measured on each of the AC input lines; and by: the rectifier connected to the AC input lines being a pulse width modulation rectifier. alternating current input lines for carrying AC power; a rectifier connected to the AC input lines; a direct current link capacitor connected to the rectifier; and a PWM inverter connected to the DC link capacitor for converting DC power provided by the rectifier to AC power provided to an AC motor; characterised by comprising: a capacitor (C 1,C 2,C 3) connected to each AC input line for measuring current and voltage on that AC input line; a PWM rectifier controller that controls the rectifier to minimize harmonics at the DC link capacitor in a first mode in which power is provided to the AC motor, and controls the PWM rectifier to minimize harmonics on the AC input lines in a second mode based on present voltage and current values measured on each of the AC input lines; and by: the rectifier connected to the AC input lines being a pulse width modulation rectifier.
An aspiration device 100, comprising: an aspiration cannula 105, for entering through a hollow entry cannula 101 and through a tissue area; wherein the aspiration cannula 105 comprises a flexible material allowing for curvature for following a tissue area, a distal tip 130 at the distal end of the aspiration cannula 105; wherein the distal tip comprises a rotating drill tip 132 for one or more of penetrating and advancing through the body tissue, the rotating drill tip terminating at a rounded blunt tip; said rounded blunt tip being capable of moving sideways along a wall or boundary of a body space or cavity upon encountering said wall or boundary such that it cannot puncture out of the body space or cavity and wherein said aspiration cannula 105 is sufficiently flexible so as to be redirectable to follow a different path through said body space or cavity following insertion therein, and wherein said aspiration cannula 105 is capable of being coupled to a handle 102, characterized in that, said aspiration cannula is equipped with: one or more steering wires 107; wherein contraction or pulling of a steering wire 107 by an operator results in curvature of the aspiration cannula according to one or more of the direction and location of contracted or pulled steering wire 107; and wherein said device 100 comprises a steering control 140 for one or more of steering, guiding, advancing and retracting the aspiration cannula while the aspiration cannula 105 is in one or more of outside and inside the body tissue area. an aspiration cannula 105, for entering through a hollow entry cannula 101 and through a tissue area; wherein the aspiration cannula 105 comprises a flexible material allowing for curvature for following a tissue area, a distal tip 130 at the distal end of the aspiration cannula 105; wherein the distal tip comprises a rotating drill tip 132 for one or more of penetrating and advancing through the body tissue, the rotating drill tip terminating at a rounded blunt tip; said rounded blunt tip being capable of moving sideways along a wall or boundary of a body space or cavity upon encountering said wall or boundary such that it cannot puncture out of the body space or cavity and wherein said aspiration cannula 105 is sufficiently flexible so as to be redirectable to follow a different path through said body space or cavity following insertion therein, and wherein said aspiration cannula 105 is capable of being coupled to a handle 102, characterized in that, one or more steering wires 107; wherein contraction or pulling of a steering wire 107 by an operator results in curvature of the aspiration cannula according to one or more of the direction and location of contracted or pulled steering wire 107; and wherein said device 100 comprises a steering control 140 for one or more of steering, guiding, advancing and retracting the aspiration cannula while the aspiration cannula 105 is in one or more of outside and inside the body tissue area.
A packaging bag configured to package a polyvinyl alcohol-based resin that contains a modified group having active hydrogen, wherein the packaging bag comprises a film having a water vapor permeability of 10 g/m 2 /day or less measured in conformity with JIS Z 0208 under the conditions of 40 °C and 90 % RH, wherein the packaging bag includes low-density polyethylene as a material forming a water vapor barrier layer, wherein the low-density polyethylene refers to a polyethylene having an average density of from 0.910 g/cm 3 to 0.925 g/cm 3, and wherein the water vapor barrier layer has a thickness of from 1 μm to 200 μm.
An apparatus for acquiring light field data to create an image, the apparatus comprising: a modulator including an attenuation pattern to spatially modulate a four-dimensional light field, said attenuation pattern comprising a non-harmonic pattern being configured to generate frequency responses that include two-dimensional signals through spatial modulation in a frequency domain, wherein the attenuation pattern is configured to make positions of the frequency responses non-uniform through said spatial modulation in said frequency domain, said attenuation pattern being further configured to acquire more spatial data in a low angular frequency region and less spatial data in a high angular frequency region such that a spatial resolution in said high angular frequency region is reduced and a spatial resolution in said low angular frequency region is increased; and a sensor configured to acquire the 2D signals of the spatially modulated 4D light field. a modulator including an attenuation pattern to spatially modulate a four-dimensional light field, said attenuation pattern comprising a non-harmonic pattern being configured to generate frequency responses that include two-dimensional signals through spatial modulation in a frequency domain, wherein the attenuation pattern is configured to make positions of the frequency responses non-uniform through said spatial modulation in said frequency domain, said attenuation pattern being further configured to acquire more spatial data in a low angular frequency region and less spatial data in a high angular frequency region such that a spatial resolution in said high angular frequency region is reduced and a spatial resolution in said low angular frequency region is increased; and a sensor configured to acquire the 2D signals of the spatially modulated 4D light field.
Driver assistance system for a motor vehicle, comprising a first assistance subsystem for capturing a first sub-area of an environment of the motor vehicle and a second assistance subsystem for capturing a second sub-area of the environment, wherein the first assistance subsystem is configured to generate a first image of the first sub-area and the second assistance subsystem is configured to generate a second image of the second sub-area and the driver assistance system has a display device for displaying at least the first image, wherein the display device is configured to display a first augmented reality, wherein the first augmented reality is generated by superimposing the first image with first assistance information of the first assistance subsystem generated on the basis of the first image as first augmented reality content and by superimposing second assistance information of the second assistance subsystem generated on the basis of the second image as second augmented reality content, characterised in that the first assistance subsystem and the second assistance subsystem are configured as an electronic rear-view mirror, wherein the first assistance subsystem and the second assistance subsystem are configured as an electronic reversing camera.
Punch press mounted on spring-damper elements, wherein the spring-damper elements each have a hydraulic damper unit with a first fluid chamber and a second fluid chamber, wherein, in the intended operation, when the spring-damper element is moved downward under spring compression, a hydraulic fluid is displaced from the first fluid chamber via a throttle point into the second fluid chamber, and each have an overload valve arranged between the first fluid chamber and the second fluid chamber, which opens when a certain fluid pressure is reached in the first fluid chamber or when a certain pressure difference is reached between the first fluid chamber and the second fluid chamber, and enables a bypass via which hydraulic fluid then flows from the first fluid chamber into the second fluid chamber, bypassing the throttle point, characterized in that the spring-damper elements are each adapted in such a way that the fluid pressure or the pressure difference at which the overload valve opens can be adjusted when the spring-damper element is installed as specified.
An array substrate comprising: a glass substrate having two opposite surfaces; a flexible substrate comprising a first portion and a second portion, the glass substrate being arranged on a lower surface of the first portion of the flexible substrate, the second portion being a portion of the flexible substrate other than the first portion and being located at periphery of the first portion, the second portion surrounding the first portion, and the second portion of the flexible substrate being provided with a peripheral circuit thereon; and a display array formed on the first portion of the flexible substrate, wherein the second portion of the flexible substrate is bendable with respect to the glass substrate, so that the second portion is bent to wrap an end of the glass substrate, such that a part of the second portion is in contact with the surface of the glass substrate which is away from the first portion. a glass substrate having two opposite surfaces; a flexible substrate comprising a first portion and a second portion, the glass substrate being arranged on a lower surface of the first portion of the flexible substrate, the second portion being a portion of the flexible substrate other than the first portion and being located at periphery of the first portion, the second portion surrounding the first portion, and the second portion of the flexible substrate being provided with a peripheral circuit thereon; and a display array formed on the first portion of the flexible substrate, wherein the second portion of the flexible substrate is bendable with respect to the glass substrate, so that the second portion is bent to wrap an end of the glass substrate, such that a part of the second portion is in contact with the surface of the glass substrate which is away from the first portion.
A method of producing a modular independent suspension having portal wheel ends (42,44), the method comprising: assembling a first flank component and a second flank component to opposite sides of a sub-frame configured to receive a carrier; assembling a first upper control arm and a first lower control arm to the first flank component; assembling a second upper control arm and a second lower control arm to the second flank component; assembling a first portal wheel end to the first upper control arm and the first lower control arm; and assembling a second portal wheel end to the second upper control arm and the second lower control arm; characterized by assembling the first flank component and the second flank component to opposite sides of the sub-frame comprises aligning the first flank component with a first desired subset of first bolt holes defined in a first side of the sub-frame and aligning the second flank component with a second desired subset of second bolt holes defined in the second side of the sub-frame, wherein the first flank component and the second flank component are configured to be attached at varying heights with respect to the sub-frame. assembling a first flank component and a second flank component to opposite sides of a sub-frame configured to receive a carrier; assembling a first upper control arm and a first lower control arm to the first flank component; assembling a second upper control arm and a second lower control arm to the second flank component; assembling a first portal wheel end to the first upper control arm and the first lower control arm; and assembling a second portal wheel end to the second upper control arm and the second lower control arm; characterized by assembling the first flank component and the second flank component to opposite sides of the sub-frame comprises aligning the first flank component with a first desired subset of first bolt holes defined in a first side of the sub-frame and aligning the second flank component with a second desired subset of second bolt holes defined in the second side of the sub-frame, wherein the first flank component and the second flank component are configured to be attached at varying heights with respect to the sub-frame.
A method for exchanging point to point protocol, PPP, information among network nodes, the method comprising: determining whether a payload for a point to point protocol, PPP, includes PPP control data; if it is determined that the PPP payload includes PPP control data, then performing the steps of: generating an outbound protocol frame with the PPP control data in a payload of the outbound protocol frame and with an outbound protocol type field that includes data that indicates that PPP control data is contained in the payload of the outbound frame; and sending the outbound protocol frame to a server which uses the PPP control data, wherein the outbound protocol is Ethernet. determining whether a payload for a point to point protocol, PPP, includes PPP control data; if it is determined that the PPP payload includes PPP control data, then performing the steps of: generating an outbound protocol frame with the PPP control data in a payload of the outbound protocol frame and with an outbound protocol type field that includes data that indicates that PPP control data is contained in the payload of the outbound frame; and sending the outbound protocol frame to a server which uses the PPP control data, wherein the outbound protocol is Ethernet. generating an outbound protocol frame with the PPP control data in a payload of the outbound protocol frame and with an outbound protocol type field that includes data that indicates that PPP control data is contained in the payload of the outbound frame; and sending the outbound protocol frame to a server which uses the PPP control data, wherein the outbound protocol is Ethernet.
A method for producing a three-dimensional material composite of at least two metal bodies (4, 5; 10, 11), wherein the metal bodies are initially assembled such that the surface areas to be connected loosely abut on one another, wherein said composite is then heated to a target temperature while said surface areas are pressed against one another such that no gap remains, and wherein a positive-locking and/or force-locking connection is produced between the surface areas of the metal bodies, characterized in that the pressure required for pressing the surface areas against one another is generated by arranging at least one expansion cavity (2; 8) with a predefined initial volume in one of the metal bodies or in an additional expansion body (1; 7) which abuts on at least one of the metal bodies (5; 11), in such a way that during its expansion pressed against one another the surface areas to be connected are, that a predefined amount of at least one substance is filled into the expansion cavity (2; 8) and hermetically confined, said substance being gaseous at least at the target temperature or forming, prior to reaching the target temperature, at least one substance in a predefined proportion that is gaseous at the target temperature, wherein the inner wall of the expansion cavity consists of a material that cannot absorb the at least one gaseous substance and cannot react therewith such that the amount of the at least one gaseous substance changes, wherein the predefined amount of substance is chosen in such a way that a predefined pressure is reached in the expansion cavity upon reaching the target temperature, and wherein this predefined pressure suffices for closing any existing gaps (6; 12) between the surface areas to be connected due to a deformation of the metal body containing the expansion cavity or the expansion body, respectively, and at least one of the abutting metal bodies.
Method for decellularising organs and tissues in a reactor, wherein the reactor comprises: at least one first external tubular nozzle and at least one second internal tubular nozzle, wherein: the tubular nozzles are mounted in the interior of the reactor; and fluid can be fed into the tubular nozzles from outside of the reactor through an inlet; an outlet; wherein each of the organs or tissues to be decellularised is positioned in the interior of the reactor and is mounted on a second internal tubular nozzle; wherein a cleaning solution is present in the reactor; and wherein the method comprises the following steps: pressing a cleaning solution with pressure through the respective inlets into first and second tubular nozzles for the internal and external treatment of the organs and tissues to be decellularised; aspirating cleaning fluid from the reactor through the outlet; wherein: the pressure in step is selected such that, in the reactor, strong laminar and/or turbulent flows and eddies occur in the cleaning solution; and steps and are preferably carried out simultaneously and over a predetermined period of time. at least one first external tubular nozzle and at least one second internal tubular nozzle, wherein: the tubular nozzles are mounted in the interior of the reactor; and fluid can be fed into the tubular nozzles from outside of the reactor through an inlet; the tubular nozzles are mounted in the interior of the reactor; and fluid can be fed into the tubular nozzles from outside of the reactor through an inlet; an outlet; wherein each of the organs or tissues to be decellularised is positioned in the interior of the reactor and is mounted on a second internal tubular nozzle; wherein a cleaning solution is present in the reactor; and wherein the method comprises the following steps: pressing a cleaning solution with pressure through the respective inlets into first and second tubular nozzles for the internal and external treatment of the organs and tissues to be decellularised; aspirating cleaning fluid from the reactor through the outlet; pressing a cleaning solution with pressure through the respective inlets into first and second tubular nozzles for the internal and external treatment of the organs and tissues to be decellularised; aspirating cleaning fluid from the reactor through the outlet; the pressure in step is selected such that, in the reactor, strong laminar and/or turbulent flows and eddies occur in the cleaning solution; and steps and are preferably carried out simultaneously and over a predetermined period of time.
A mattress cover comprising: - a top panel, - at least one side panel, and - at least one tape edge connecting the top panel with the at least one side panel, characterized in that the mattress cover is knitted, wherein the top panel, the at least one side panel and the at least one tape edge are integrated into a seamless, one-piece knit. - a top panel, - at least one side panel, and - at least one tape edge connecting the top panel with the at least one side panel,