mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a patient, comprising the following steps: (a) associating a first set of vital sign information with the patient, the first set of vital sign information measured from the patient with a first monitor comprising a first motion sensor; (b) storing the first set of vital sign information associated with the patient in a computer memory; (c) contacting the first monitor with a second monitor comprising a second motion sensor, the contacting causing the first motion sensor to generate a first motion signal, and the second motion sensor to generate a second motion signal; (d) wirelessly transmitting both the first and second motion signals to a remote server (e) collectively processing the first and second motion signals on the remote server to determine that the first monitor is to be replaced by the second monitor; and (f) associating a second set of vital sign information with the patient, the second set of vital sign information measured from the patient with the second monitor. (a) associating a first set of vital sign information with the patient, the first set of vital sign information measured from the patient with a first monitor comprising a first motion sensor; (b) storing the first set of vital sign information associated with the patient in a computer memory; (c) contacting the first monitor with a second monitor comprising a second motion sensor, the contacting causing the first motion sensor to generate a first motion signal, and the second motion sensor to generate a second motion signal; (d) wirelessly transmitting both the first and second motion signals to a remote server (e) collectively processing the first and second motion signals on the remote server to determine that the first monitor is to be replaced by the second monitor; and (f) associating a second set of vital sign information with the patient, the second set of vital sign information measured from the patient with the second monitor.
A clock signal polarity controlling circuit comprising: a first latch comprising a clock input (clk), a data input and an output, wherein the data input is coupled to an output of a clock signal generator, the clock input (clk) is coupled to a reference clock signal (Ref-clk); a second latch comprising a clock input (clk), a data input and an output, wherein the data input is coupled to the output of the first latch, the clock input (clk) is coupled to an inverted of the reference clock signal (Ref-clk); an XOR circuit comprising a first and second inputs (141, 142) and an output (Out), wherein the first and second inputs (141, 142) are coupled to the output of the second latch and the output of the clock signal generator respectively, and wherein a clock signal having a polarity that is controlled by the reference clock signal (Ref-clk) is generated at the output of the XOR circuit, and wherein a frequency of the reference clock signal (Ref-clk) is half of or lower than the frequency of the clock signal. a first latch comprising a clock input (clk), a data input and an output, wherein the data input is coupled to an output of a clock signal generator, the clock input (clk) is coupled to a reference clock signal (Ref-clk); a second latch comprising a clock input (clk), a data input and an output, wherein the data input is coupled to the output of the first latch, the clock input (clk) is coupled to an inverted of the reference clock signal (Ref-clk); an XOR circuit comprising a first and second inputs (141, 142) and an output (Out), wherein the first and second inputs (141, 142) are coupled to the output of the second latch and the output of the clock signal generator respectively, and wherein a clock signal having a polarity that is controlled by the reference clock signal (Ref-clk) is generated at the output of the XOR circuit, and wherein a frequency of the reference clock signal (Ref-clk) is half of or lower than the frequency of the clock signal.
An optoelectronic apparatus, comprising: a carrier device which has at least one optoelectronic transmitter and at least one optoelectronic receiver at an upper side; at least one first optical element, a second optical element and a third optical element which are assembled as separate optical elements to form a layer arrangement above the carrier device, with the second optical element being arranged above the first optical element and the third optical element being arranged above the second optical element, and with each of the at least three optical elements comprising a lens element, an aperture element or a filter element; and a holding device which holds at least the first optical element and the second optical element relative to the carrier device and partly surrounds at least the first optical element and the second optical element, wherein the holding device is formed in two parts, and wherein the holding device comprises a lower part and an upper part; wherein the first optical element and the second optical element are captured between the lower part and the upper part of the holding device; wherein the third optical element is formed by the upper part of the holding device; and wherein the carrier device, the first optical element and the second optical element are placed into the lower part, characterized in that the carrier device is also captured between the lower part and the upper part of the holding device, with the upper part closing the lower part and fixing the first optical element and the second optical element to the carrier device. a carrier device which has at least one optoelectronic transmitter and at least one optoelectronic receiver at an upper side; at least one first optical element, a second optical element and a third optical element which are assembled as separate optical elements to form a layer arrangement above the carrier device, with the second optical element being arranged above the first optical element and the third optical element being arranged above the second optical element, and with each of the at least three optical elements comprising a lens element, an aperture element or a filter element; and a holding device which holds at least the first optical element and the second optical element relative to the carrier device and partly surrounds at least the first optical element and the second optical element, wherein the holding device is formed in two parts, and wherein the holding device comprises a lower part and an upper part; wherein the first optical element and the second optical element are captured between the lower part and the upper part of the holding device; wherein the third optical element is formed by the upper part of the holding device; and wherein the carrier device, the first optical element and the second optical element are placed into the lower part, characterized in that the carrier device is also captured between the lower part and the upper part of the holding device, with the upper part closing the lower part and fixing the first optical element and the second optical element to the carrier device.
A tissue regeneration substrate comprising: a nonwoven fabric made of a bioabsorbable material, the tissue regeneration substrate having a laminated structure in which a layer containing a nonwoven fabric having an average pore size of 20 to 50 μm and a layer containing a nonwoven fabric having an average pore size of 5 to 18 μm are integrated, so as to a delamination strength as measured in accordance with determination of delamination strength specified in JIS L 1021-9 is 0.1 N or more. a nonwoven fabric made of a bioabsorbable material, the tissue regeneration substrate having a laminated structure in which a layer containing a nonwoven fabric having an average pore size of 20 to 50 μm and a layer containing a nonwoven fabric having an average pore size of 5 to 18 μm are integrated, so as to a delamination strength as measured in accordance with determination of delamination strength specified in JIS L 1021-9 is 0.1 N or more.
Syringe having a syringe body and a proximal syringe outlet in the syringe body as well as having a syringe plunger being axially movable in the syringe body, having a proximal end and a distal end, an elongated lumen is formed inside the syringe plunger coming from the proximal end of the syringe plunger until the distal end of the syringe plunger, in which a movable inner plunger having a proximal end and a distal end is arranged, characterised in that, the inner plunger, at least in part or totally, on its outer surface and/or the inner surface of the lumen, at least in part or totally, is provided with at least one lubricant comprising a slip component comprising a lubricant or an additive or mixture of additives being present in the matrix and/or is superficially provided with an additive or a mixture of additive to reduce friction between the outer surface of the inner plunger and the inner surface of the lumen, wherein the force-fit between the outer surface of the inner plunger and inner surface of the lumen is smaller than the force-fit between the inner surface of the syringe body and the outer surface of the syringe plunger.
A video transcoding system, comprising: a main transcoder and a backup transcoder; the main transcoder is configured to acquire an input video, transcoding the input video, and transmit a transcoded video to a receiving device; and the backup transcoder is configured to acquire the input video and buffer the input video, acquire transcoding location information of the main transcoder at the time when the main transcoder is down, transcode the buffered input video according to the transcoding location information to generate an output video, and transmit the output video to the receiving device, characterized in that the backup transcoder comprises a decoder, a first encoder, and a second encoder; the decoder is configured to decode the buffered input video according to the transcoding location information to obtain buffered decoded data, and transmit the buffered decoded data to the first encoder; the first encoder is configured to receive the buffered decoded data and encode the buffered decoded data; the decoder is further configured to decode an acquired new input video into new decoded data and transmit the new decoded data to the second encoder, the new input video being an input video received after the main transcoder is down; and the second encoder is configured to receive the new decoded data and encode the new decoded data. a main transcoder and a backup transcoder; the main transcoder is configured to acquire an input video, transcoding the input video, and transmit a transcoded video to a receiving device; and the backup transcoder is configured to acquire the input video and buffer the input video, acquire transcoding location information of the main transcoder at the time when the main transcoder is down, transcode the buffered input video according to the transcoding location information to generate an output video, and transmit the output video to the receiving device, characterized in that the backup transcoder comprises a decoder, a first encoder, and a second encoder; the decoder is configured to decode the buffered input video according to the transcoding location information to obtain buffered decoded data, and transmit the buffered decoded data to the first encoder; the first encoder is configured to receive the buffered decoded data and encode the buffered decoded data; the decoder is further configured to decode an acquired new input video into new decoded data and transmit the new decoded data to the second encoder, the new input video being an input video received after the main transcoder is down; and the second encoder is configured to receive the new decoded data and encode the new decoded data.
A liquid liner implosion system (10, 80) for forming a cavity (13, 83) in a liquid liner (18, 88) and collapsing the cavity by imploding the liquid liner, the system comprising: (a) a vessel (12, 82) having an outer wall; (b) a rotating member (14, 84, 104) inside the vessel and rotatable about a rotation axis, the rotating member comprising - a first end and a second end (23, 24) along the rotation axis; - an inner surface defining an interior volume and curving with respect to the axis of rotation; - a plurality of passages; said liquid liner implosion system (10, 80) further comprising: (c) a rotational driver operationally coupled to the rotating member (14, 84, 104) to rotate the rotating member; (d) a liquid medium in the rotating member, the liquid medium at least partially filling the passages and forming said liquid liner (18, 88) when the rotating the member is rotating, an inner interface (19, 89) of the liquid liner defining said cavity (13, 83), said cavity being coaxial with the rotation axis; and (e) an implosion driver engageable with the rotating member to change the acceleration of the rotating member and cause the liquid liner to implode towards a central region of the interior volume, thereby collapsing the cavity; characterised in that said plurality of passages of the rotating member (14, 84, 104) is a plurality of curved passages each having an inboard opening at the inner surface and an outboard end, wherein a curvature of each passage is a function of a distance between the outboard end of the passage and the first or the second end, and wherein one or more of the passages have an outboard end in a vicinity of the first or second end and curves in three dimensions (X, Y, Z) from the outboard end to the inboard opening in a direction towards a central region of the interior volume. (a) a vessel (12, 82) having an outer wall; (b) a rotating member (14, 84, 104) inside the vessel and rotatable about a rotation axis, the rotating member comprising - a first end and a second end (23, 24) along the rotation axis; - an inner surface defining an interior volume and curving with respect to the axis of rotation; - a plurality of passages; said liquid liner implosion system (10, 80) further comprising: - a first end and a second end (23, 24) along the rotation axis; - an inner surface defining an interior volume and curving with respect to the axis of rotation; - a plurality of passages; said liquid liner implosion system (10, 80) further comprising: (c) a rotational driver operationally coupled to the rotating member (14, 84, 104) to rotate the rotating member; (d) a liquid medium in the rotating member, the liquid medium at least partially filling the passages and forming said liquid liner (18, 88) when the rotating the member is rotating, an inner interface (19, 89) of the liquid liner defining said cavity (13, 83), said cavity being coaxial with the rotation axis; and (e) an implosion driver engageable with the rotating member to change the acceleration of the rotating member and cause the liquid liner to implode towards a central region of the interior volume, thereby collapsing the cavity; characterised in that
An article comprising a fiber or yarn having a coating, wherein the coating comprises silk fibroin-based protein fragments having a weight average molecular weight range of from 5 kDa to 144 kDa, the molecular weight being determined using HPLC with a Refractive Index Detector, wherein the silk fibroin-based protein fragments have a polydispersity of between 1.5 and 3.0, the polydispersity being determined according to the method described herein.
A gradient coil system suitable for use in an MRI system, the gradient coil system comprising: a gradient body having a bore extending therethrough, at least one frustoconical portion arranged about the bore and one or more cylindrical portions arranged about the bore wherein at least one of the one or more cylindrical portions adjoins one or more of the at least one frustoconical portions, wherein a diameter of a first end of the bore is greater than a diameter of a second end of the bore, wherein the diameter of the first end of the bore is greater than 500mm to allow shoulder access; and a gradient coil assembly arranged about the bore, the gradient coil assembly having at least one frustoconical section substantially conforming to the at least one frustoconical portion of the gradient body, the gradient coil assembly is configured to generate gradient fields in a Diameter of Spherical Volume for medical imaging, characterised in that the gradient coil assembly includes two frustoconical sections and an angle of a first of the two frustoconical sections is between 0 and 10 degrees and an angle of the second of the two frustoconical sections is between 5 and 30 degrees with respect to a longitudinal axis of the gradient body, wherein the bore comprises two frustoconical sections corresponding to the two frustoconical sections of the gradient coil assembly and a length of the second of the two frustoconical sections of the gradient coil assembly is greater than a length of the first of the two frustoconical sections of the gradient coil assembly to increase efficiency and linearity of the magnetic field gradient. a gradient body having a bore extending therethrough, at least one frustoconical portion arranged about the bore and one or more cylindrical portions arranged about the bore wherein at least one of the one or more cylindrical portions adjoins one or more of the at least one frustoconical portions, wherein a diameter of a first end of the bore is greater than a diameter of a second end of the bore, wherein the diameter of the first end of the bore is greater than 500mm to allow shoulder access; and a gradient coil assembly arranged about the bore, the gradient coil assembly having at least one frustoconical section substantially conforming to the at least one frustoconical portion of the gradient body, the gradient coil assembly is configured to generate gradient fields in a Diameter of Spherical Volume for medical imaging, characterised in that the gradient coil assembly includes two frustoconical sections and an angle of a first of the two frustoconical sections is between 0 and 10 degrees and an angle of the second of the two frustoconical sections is between 5 and 30 degrees with respect to a longitudinal axis of the gradient body, wherein the bore comprises two frustoconical sections corresponding to the two frustoconical sections of the gradient coil assembly and a length of the second of the two frustoconical sections of the gradient coil assembly is greater than a length of the first of the two frustoconical sections of the gradient coil assembly to increase efficiency and linearity of the magnetic field gradient.
An implant comprising an implant body having a total volume, the implant body defining at least one chamber disposed in an expandable portion of the implant body, the at least one chamber having a volume less than the total volume, wherein the at least one chamber is configured to receive an expansion fluid having a volume that increases, such that the volume of the expandable portion increases to an expanded position after energy has delivered heat to the implant body, characterised in that the delivered heat causes the implant body to soften, wherein the delivered heat causes the expansion fluid to expand within the chamber and wherein the expansion fluid inside the at least one chamber is a liquid at room temperature, and vaporizes in response to the delivered heat; wherein the at least one chamber is closed, so that by increasing the temperature of the liquid, the pressure in the chamber increases and wherein the pressure of the vapour exerts an expansive force onto the implant body; wherein the expandable portion is made from a polymeric material and wherein the delivered heat causes the polymeric material to be heated to its glass transition temperature and become plastically deformed; and wherein the expandable portion is adapted to maintain its expanded position when the implant body is cooled below the glass transition temperature of the polymeric material and the pressure in the chamber is reduced. wherein the delivered heat causes the expansion fluid to expand within the chamber and wherein the expansion fluid inside the at least one chamber is a liquid at room temperature, and vaporizes in response to the delivered heat; wherein the at least one chamber is closed, so that by increasing the temperature of the liquid, the pressure in the chamber increases and wherein the pressure of the vapour exerts an expansive force onto the implant body; wherein the expandable portion is made from a polymeric material and wherein the delivered heat causes the polymeric material to be heated to its glass transition temperature and become plastically deformed; and wherein the expandable portion is adapted to maintain its expanded position when the implant body is cooled below the glass transition temperature of the polymeric material and the pressure in the chamber is reduced.
Tunnel formwork device comprising: - a frame, - at least two support structures connectable to the frame of the tunnel formwork device and spaced apart from one another in the longitudinal direction of the tunnel formwork device for supporting the frame on a tunnel floor, characterized in that the frame carries at least two hydraulic support cylinders (26a,b, 28a,b, 30a,b) at at least two positions spaced apart from one another in the longitudinal direction, which support cylinders can be connected to longitudinal beams (32a-f) running in the longitudinal direction, which longitudinal beams (32a-f) carry tunnel formwork elements of the tunnel formwork device, wherein at least one lifting device is arranged on the frame, which lifting device carries at least one working platform (22a-d), wherein the lifting device has a lifting drive for moving the working platform (22a-d) relative to the frame. - a frame, - at least two support structures connectable to the frame of the tunnel formwork device and spaced apart from one another in the longitudinal direction of the tunnel formwork device for supporting the frame on a tunnel floor, characterized in that the frame carries at least two hydraulic support cylinders (26a,b, 28a,b, 30a,b) at at least two positions spaced apart from one another in the longitudinal direction, which support cylinders can be connected to longitudinal beams (32a-f) running in the longitudinal direction, which longitudinal beams (32a-f) carry tunnel formwork elements of the tunnel formwork device, wherein at least one lifting device is arranged on the frame, which lifting device carries at least one working platform (22a-d), wherein the lifting device has a lifting drive for moving the working platform (22a-d) relative to the frame.
An image processing method of an image processing apparatus, comprising: projecting centers of pixels of a pixel grid onto a preset common axis; and mapping a boundary of a detector cell comprised in a detection unit on the preset common axis; CHARACTERIZED BY determining a detector value based on the projecting of the centers of the pixels onto the preset common axis and the mapping of the boundary of the detector cell on the preset common axis, wherein the detector value is determined based on an integrated pixel value between points at which the boundary of the detector cell is mapped on the common axis. projecting centers of pixels of a pixel grid onto a preset common axis; and mapping a boundary of a detector cell comprised in a detection unit on the preset common axis; CHARACTERIZED BY determining a detector value based on the projecting of the centers of the pixels onto the preset common axis and the mapping of the boundary of the detector cell on the preset common axis, wherein the detector value is determined based on an integrated pixel value between points at which the boundary of the detector cell is mapped on the common axis.