mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring extracorporeal blood flow, the system comprising a blood chamber (300, 500) and a sensor clip assembly (334, 537), the blood chamber (300, 500) comprising an inlet, an outlet and a body (301, 501) having an internal blood flow cavity (320, 362, 517), first and second windows (303, 304; 336, 338; 505, 506) on opposing sides of the body for viewing the extracorporeal blood flow through the internal blood flow cavity; the sensor clip assembly (334, 537) comprising shrouds (340, 342; 538, 539), wherein the blood chamber (300, 500) comprises first and second shroud-mating surfaces (304, 404; 507, 508) substantially surrounding peripheries of the first and second windows (303, 304; 336, 338; 505, 506) for engaging the shrouds (340, 342; 538, 539) of the sensor clip assembly and for cooperating with the shrouds of the sensor clip assembly to shield the extracorporeal blood flow in the internal blood flow cavity (320, 362, 517) from illumination by unwanted light when the blood chamber (300, 500) is fastened to the sensor clip assembly (334, 537) and to align photoemitters (344, 548) and photodetectors (346, 549) in the sensor clip assembly with the first and second windows, characterized in that the shrouds (340, 342; 538, 539) extend beyond lenses (351, 353, 551, 552) of the sensor clip assembly. the blood chamber (300, 500) comprising an inlet, an outlet and a body (301, 501) having an internal blood flow cavity (320, 362, 517), first and second windows (303, 304; 336, 338; 505, 506) on opposing sides of the body for viewing the extracorporeal blood flow through the internal blood flow cavity; the sensor clip assembly (334, 537) comprising shrouds (340, 342; 538, 539), wherein the blood chamber (300, 500) comprises first and second shroud-mating surfaces (304, 404; 507, 508) substantially surrounding peripheries of the first and second windows (303, 304; 336, 338; 505, 506) for engaging the shrouds (340, 342; 538, 539) of the sensor clip assembly and for cooperating with the shrouds of the sensor clip assembly to shield the extracorporeal blood flow in the internal blood flow cavity (320, 362, 517) from illumination by unwanted light when the blood chamber (300, 500) is fastened to the sensor clip assembly (334, 537) and to align photoemitters (344, 548) and photodetectors (346, 549) in the sensor clip assembly with the first and second windows, characterized in that the shrouds (340, 342; 538, 539) extend beyond lenses (351, 353, 551, 552) of the sensor clip assembly.
A composite negative active material comprising: a piezoelectric material; a negative active material, and a carbonaceous negative active material characterised in that: the negative active material comprises a non-carbonaceous negative active material comprising at least one selected from silicon, germanium, aluminum, tin, and a titanium oxide, wherein the material has a maximum volume expansion of 10% or more during an electrochemical reaction. a piezoelectric material; a negative active material, and a carbonaceous negative active material
A method for predicting the outcome of anti-cancer treatment of a subject with a cell hyperproliferative disorder, comprising determining a global chromosomal aberration score (GCAS) by: (i) analysing a biological sample comprising tumor cells obtained from the subject to determine whether a plurality of chromosomal loci distributed throughout the genome display a chromosomal aberration selected from the group consisting of allelic imbalance, loss of heterozygosity (NLOH), copy number aberrations (NCNA), copy number gain (NCNG), copy number decrease (NCND) and combinations thereof, and (ii) determining the genome wide count of chromosomal loci that display chromosomal aberrations within the biological sample relative to a control, wherein the summation of individual chromosomal aberrations within the biological sample predicts the outcome of anti-cancer treatment of the subject independently of identifying specific chromosomal aberrations.
Medical control system having an operator device having a touchscreen, wherein the operator device comprises a first transmitting unit emitting electromagnetic radiation, a control device, and several medical apparatuses (5, 6, 7, 8), wherein the medical apparatuses (5, 6, 7, 8) comprise second transmitting units emitting electromagnetic radiation, and wherein the medical apparatuses (5, 6, 7, 8) and the operator device respectively comprise a data connection with the control device, wherein the operator device is adapted to display a schematic illustration of the medical apparatuses (5, 6, 7, 8) on the touchscreen, wherein the operator device is adapted to enable an illustration of specific operation functions by touching one of the schematic illustrations of one of the medical apparatuses (5, 6, 7, 8), wherein several reading modules arranged in a room at predefined positions receive the electromagnetic rays emitted by first and second transmitting units (34, 34'), wherein the medical control system is adapted to determine, by a measurement of signal strengths of the electromagnetic rays received by the reading modules, and to transmit to the operator device relative positions of the medical apparatuses (5, 6, 7, 8) to the operator device, and the operator device is adapted to display the schematic illustration of the medical apparatuses (5, 6, 7, 8) according to the relative positions so that an arrangement of the positions of the medical apparatuses (5, 6, 7, 8) illustrated on the operator device corresponds to an arrangement of the medical apparatuses (5, 6, 7, 8) from a view of the operator device.
A system comprising: a secure area (12, 15) with a secure entry; an automated transaction machine disposed within the secure area (12, 15) and having a display; a beacon associated with the automated transaction machine and configured to transmit a signal including a unique identification of the beacon; a server responsive to data from an electronic device running a software application, wherein the data is sent to the server when the electronic device is within communication range of the beacon, and wherein the data includes a unique identification of the electronic device as well as the unique identification of the beacon, wherein the secure entry is responsive to a command to unlock and thereby allow access to the secure area (12, 15), the command generated by and sent from the server at least in part due to the electronic device running the software application being in communication proximity with the beacon once the server authenticates the electronic device; wherein the command is generated by the server in response to receiving the data sent from the electronic device; and wherein, in response to determining more than a fixed number of authenticated electronic devices, the server is configured to blur the display of the automated transaction machine, when displaying private commands, and offer to continue or stop transactions to the display. a secure area (12, 15) with a secure entry; an automated transaction machine disposed within the secure area (12, 15) and having a display; a beacon associated with the automated transaction machine and configured to transmit a signal including a unique identification of the beacon; a server responsive to data from an electronic device running a software application, wherein the data is sent to the server when the electronic device is within communication range of the beacon, and wherein the data includes a unique identification of the electronic device as well as the unique identification of the beacon, wherein the secure entry is responsive to a command to unlock and thereby allow access to the secure area (12, 15), the command generated by and sent from the server at least in part due to the electronic device running the software application being in communication proximity with the beacon once the server authenticates the electronic device; wherein the command is generated by the server in response to receiving the data sent from the electronic device; and wherein, in response to determining more than a fixed number of authenticated electronic devices, the server is configured to blur the display of the automated transaction machine, when displaying private commands, and offer to continue or stop transactions to the display.
A process for recovery of gold from gold-containing raw materials comprising refractory gold-containing minerals, in particular gold-containing refractory sulfidic minerals, comprising (a) obtaining gold-containing raw material comprising refractory gold-containing sulfidic minerals comprising first type of refractory sulfidic mineral having high gold content and second type of sulfidic mineral having low gold content, said first type and said second type of sulfidic minerals are to be classified within a single species of refractory sulfidic minerals; (b) forming a mineral pulp comprising first type of refractory sulfidic mineral particles having high gold content and second type of sulfidic mineral particles having low gold content by suspending ground gold-containing material in water and optionally further milling the material; (c) conditioning the mineral pulp by addition of a surface modifying chemical for modifying the surface of the first type of refractory sulfidic mineral particles having high content thus making the said particles non-floatable to obtain a conditioned pulp; (d) subjecting the conditioned pulp to a froth flotation process to separate first type of refractory sulfidic mineral particles having high gold content from the second type of sulfidic mineral particles having low gold content; (e) recovering the non-floatable first type of refractory sulfidic mineral particles having high gold content as flotation tailings; (f) pressure oxidizing the flotation tailings recovered in step (e) to obtain a discharge slurry comprising liberated gold; and (g) recovering gold from the discharge slurry obtained in step (f). (a) obtaining gold-containing raw material comprising refractory gold-containing sulfidic minerals comprising first type of refractory sulfidic mineral having high gold content and second type of sulfidic mineral having low gold content, said first type and said second type of sulfidic minerals are to be classified within a single species of refractory sulfidic minerals; (b) forming a mineral pulp comprising first type of refractory sulfidic mineral particles having high gold content and second type of sulfidic mineral particles having low gold content by suspending ground gold-containing material in water and optionally further milling the material; (c) conditioning the mineral pulp by addition of a surface modifying chemical for modifying the surface of the first type of refractory sulfidic mineral particles having high content thus making the said particles non-floatable to obtain a conditioned pulp; (d) subjecting the conditioned pulp to a froth flotation process to separate first type of refractory sulfidic mineral particles having high gold content from the second type of sulfidic mineral particles having low gold content; (e) recovering the non-floatable first type of refractory sulfidic mineral particles having high gold content as flotation tailings; (f) pressure oxidizing the flotation tailings recovered in step (e) to obtain a discharge slurry comprising liberated gold; and (g) recovering gold from the discharge slurry obtained in step (f).
A method comprising: at a first mobile device: presenting, during an audio call through a wireless communication network with a second device, a selectable user interface item in a display area of a user interface of the first mobile device for switching from the audio call to a video conference; upon receiving a selection of the selectable UI item, displaying in the display area a full-screen presentation of the first video captured by the first mobile device; and initiating the video conference by terminating the audio call before allowing the first mobile device and the second device to present audio and video data exchanged through the video conference on the first mobile device and displaying an animation to visually indicate the switching from the audio call to the video conference that (i) starts with reducing a size of the first video while displaying the first video and (ii) follows with displaying the first video overlapping at least a portion of a second video captured by the second device. presenting, during an audio call through a wireless communication network with a second device, a selectable user interface item in a display area of a user interface of the first mobile device for switching from the audio call to a video conference; upon receiving a selection of the selectable UI item, displaying in the display area a full-screen presentation of the first video captured by the first mobile device; and initiating the video conference by terminating the audio call before allowing the first mobile device and the second device to present audio and video data exchanged through the video conference on the first mobile device and displaying an animation to visually indicate the switching from the audio call to the video conference that (i) starts with reducing a size of the first video while displaying the first video and (ii) follows with displaying the first video overlapping at least a portion of a second video captured by the second device.
A method of processing an input image composed of an array of pixels, each pixel having n intensity values in at least the three color planes cyan (c), magenta (m) and yellow (y) for producing an output image to be printed on a device having a limited number m of intensity values, where m < n, comprising the steps of: generating a set of color lookup tables, said color LUTs containing for each input color (c,m,y) the values of the corresponding ink drop combination to be printed; halftoning patches of constant color for every input color component (c,m,y) with each of these color LUTs; analyzing the resulting patches and selecting an optimum color LUT for each input color (c,m,y); creating an index lookup table referencing for each input color (c,m,y) the color LUT to be used for this input color; using the original input pixel color (c,m,y) for each pixel of the image to create a color index (ci,mi,yi); using this color index (ci,mi,yi) to determine in the index lookup table which color LUT to use; determining the accumulated diffusion error (ce,me,ye) for this pixel; adding the accumulated error (ce,me,ye) to the input pixel color (c,m,y) and using this value as an index in the previously selected color LUT to find the drop combination to be printed for this pixel; storing these values in an output image to be printed generating a set of color lookup tables, said color LUTs containing for each input color (c,m,y) the values of the corresponding ink drop combination to be printed; halftoning patches of constant color for every input color component (c,m,y) with each of these color LUTs; analyzing the resulting patches and selecting an optimum color LUT for each input color (c,m,y); creating an index lookup table referencing for each input color (c,m,y) the color LUT to be used for this input color; using the original input pixel color (c,m,y) for each pixel of the image to create a color index (ci,mi,yi); using this color index (ci,mi,yi) to determine in the index lookup table which color LUT to use; determining the accumulated diffusion error (ce,me,ye) for this pixel; adding the accumulated error (ce,me,ye) to the input pixel color (c,m,y) and using this value as an index in the previously selected color LUT to find the drop combination to be printed for this pixel; storing these values in an output image to be printed
A downhole assembly comprising: a liner hanger; a liner running tool operatively coupled to the liner hanger; a lower wellbore liner operatively coupled to the liner running tool, comprising an electromagnetically transparent portion, and defining one or more liner ports; a cementing module operatively coupled to the liner running tool, arrangeable within the lower wellbore liner, and defining one or more cement ports that are positionable in fluid communication with the one or more liner ports; and one or more drilling tools extendable axially out a distal end of the lower wellbore liner. a liner hanger; a liner running tool operatively coupled to the liner hanger; a lower wellbore liner operatively coupled to the liner running tool, comprising an electromagnetically transparent portion, and defining one or more liner ports; a cementing module operatively coupled to the liner running tool, arrangeable within the lower wellbore liner, and defining one or more cement ports that are positionable in fluid communication with the one or more liner ports; and one or more drilling tools extendable axially out a distal end of the lower wellbore liner.
Device for Wireless-Local-Area-Network, WLAN, -communication to a station, installed on a vehicle or any other moving entity, wherein the device is configured to: - determine a disturbance of the WLAN-communication, in terms of a Doppler spread; and - define a packet-length of the WLAN-communication based on the disturbance; wherein the device comprises at least one directional antenna; characterized in that: in one alternative (i) the device is configured to: determine the disturbance of the WLAN-communication based on an angle between the station and a main-emission direction of the directional antenna of the device; or in another alternative (ii) the device is configured to: determine at which position the station is relative to the main emission direction of the directional antenna, based on at least one of the two following conditions: - if the station is within a high-gain or low-gain area of the directional antenna; and/or - if the station is within a threshold distance to the main emission direction. - determine a disturbance of the WLAN-communication, in terms of a Doppler spread; and - define a packet-length of the WLAN-communication based on the disturbance; wherein the device comprises at least one directional antenna; characterized in that: in one alternative (i) the device is configured to: determine the disturbance of the WLAN-communication based on an angle between the station and a main-emission direction of the directional antenna of the device; or in another alternative (ii) the device is configured to: determine at which position the station is relative to the main emission direction of the directional antenna, based on at least one of the two following conditions: - if the station is within a high-gain or low-gain area of the directional antenna; and/or - if the station is within a threshold distance to the main emission direction. in one alternative (i) the device is configured to: determine the disturbance of the WLAN-communication based on an angle between the station and a main-emission direction of the directional antenna of the device; or in another alternative (ii) the device is configured to: determine at which position the station is relative to the main emission direction of the directional antenna, based on at least one of the two following conditions: - if the station is within a high-gain or low-gain area of the directional antenna; and/or - if the station is within a threshold distance to the main emission direction. - if the station is within a high-gain or low-gain area of the directional antenna; and/or - if the station is within a threshold distance to the main emission direction.
A method for resource management within a wireless network, wherein a congestion control of data traffic is performed, wherein for congestion control an Explicit Congestion Notification, Re-ECN, function will be used, wherein the Re-ECN function is comprising a policing function and a dropping function, wherein the overall fraction of congestion packets and congestion response packets at the base station or eNodeB will be taken as an indicator for estimating path congestion characteristics and wherein a dropping function will be actived at the gateway or Packet-GW, P-GW, once the following condition is met: weighted congestion fraction downlink − weighted congestion response fraction downlink > threshold, wherein the threshold has a definable value, or wherein a dropping function will be actived at the base station or eNodeB, once the following condition is met: weighted congestion fraction downlink − weighted congestion response fraction downlink > threshold, wherein the threshold has a definable value.
Pressurized-gas bottle bundle in which a plurality of pressurized-gas bottles (2, 2', 2") is accommodated within a cuboidal bundle framework (3, 25), wherein the bundle framework (3, 25), at least from a vertical point of view, extends beyond the outer dimensions of the pressurized-gas bottles (2, 2', 2") and has a base surface (15, 29) and an upper horizontal surface (19, 28) which delimits the bundle framework (2, 35) on the upper side, and which can be handled by a forklift truck, wherein projecting from the upper horizontal surface (19, 28) is a plurality of centring elements (18, 18'; 31, 31'; 32, 32') which correspond to a centring opening (20, 20') in the base surface (15, 29), wherein each centring element (18, 18'; 31, 31'; 32, 32') on the upper horizontal surface (19, 28) is assigned a centring opening (20, 20') in the base surface (15, 29) of the bundle framework, and characterized in that the centring elements (18, 18'; 31, 31'; 32, 32') are of narrowing form in each case in the direction away from the upper horizontal surface (19, 28).
A lighting device for a motor vehicle designed for generating a signal function, comprising numerous light sources, wherein the light sources can each be activated individually or at least in one or more light source groups, comprising a portion of the light sources, which has numerous primary lenses dedicated to each of the respective light sources for focusing the light emitted by the respective light sources, and has a secondary optics element for projecting the focused light onto a lighting plane, which has numerous light entry surfaces dedicated to each respective light source and one light exit surface, wherein there is a grid downstream of the light exit surface on the secondary optics element in the exit direction of the light, for segmenting the light exiting the light exit surface, wherein a respective grid segment of the grid is dedicated to a respective light source, characterized in that each primary lens focuses the light emitted from a light source, in a preferential direction, wherein the preferential direction is a direction between the norm of the plane in which the light source is located, and a direction in or counter to the direction of travel for a motor vehicle and wherein the secondary optics element refracts the light beam entering the light entry surface at the light exit surface in a direction in or counter to the direction of travel for a motor vehicle, or in a lateral direction in relation to the motor vehicle, and wherein the grid comprises a bowed or curved shape.