mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for testing an RFID device, the RFID device being configured to operate at an operating wavelength, the testing apparatus comprising a transmission-reception terminal, an antenna provided with a coupler, and a connection cable between the transmission-reception terminal and the coupler, the testing apparatus being characterized in that the antenna is a patch antenna which comprises: - a planar dielectric substrate; - a resonant transmission line arranged on a first face of the substrate, the coupler being configured to connect the resonant transmission line to the terminal; the transmission line comprises: - a half-wave main line having a first end and a second end; - a first impedance adjustment circuit electrically connected to the first end of the main line and configured to impose a voltage node on the first end when a signal having the operating wavelength propagates in the transmission line; - a second impedance adjustment circuit electrically connected to the second end of the main line and configured to impose a voltage node on the second end when a signal having the operating wavelength propagates in the transmission line. - a planar dielectric substrate; - a resonant transmission line arranged on a first face of the substrate, the coupler being configured to connect the resonant transmission line to the terminal; - a half-wave main line having a first end and a second end; - a first impedance adjustment circuit electrically connected to the first end of the main line and configured to impose a voltage node on the first end when a signal having the operating wavelength propagates in the transmission line; - a second impedance adjustment circuit electrically connected to the second end of the main line and configured to impose a voltage node on the second end when a signal having the operating wavelength propagates in the transmission line.
A passive automotive coolant liquid deaerator unit (30, 30') for deaerating a circulating coolant liquid of a coolant circuit of an automobile, with a deaerator housing defining a deceleration chamber (40, 40') with a chamber liquid inlet (38, 38') and a chamber liquid outlet (39, 39') and being provided with a deaeration opening at the vertical top of the deceleration chamber (40, 40'), wherein the chamber liquid inlet (38, 38') is provided vertically higher than the chamber liquid outlet (39, 39'), wherein a substantially horizontal baffle plate is arranged within the deceleration chamber (40, 40') and is arranged vertically between the chamber liquid inlet (38, 38') and the chamber liquid outlet (39, 39'), and characterised in that the deaerator housing is defined by a main housing body with a horizontal chamber bottom wall and chamber sidewalls (44',131,132,133,134) and a cover lid body with a chamber top wall, whereas the baffle plate body is held by the cover lid body. a deaerator housing defining a deceleration chamber (40, 40') with a chamber liquid inlet (38, 38') and a chamber liquid outlet (39, 39') and being provided with a deaeration opening at the vertical top of the deceleration chamber (40, 40'), wherein the chamber liquid inlet (38, 38') is provided vertically higher than the chamber liquid outlet (39, 39'), wherein a substantially horizontal baffle plate is arranged within the deceleration chamber (40, 40') and is arranged vertically between the chamber liquid inlet (38, 38') and the chamber liquid outlet (39, 39'), and characterised in that the deaerator housing is defined by a main housing body with a horizontal chamber bottom wall and chamber sidewalls (44',131,132,133,134) and a cover lid body with a chamber top wall, whereas the baffle plate body is held by the cover lid body.
A pharmaceutical composition comprising polysiloxane oligomers of general formula and at least one antimicrobic agent: wherein: R are each independently selected from: an optionally substituted linear or branched C 1 -C 10 alkyl, alkoxy, or alkeny group; Y' and Y" are each independently selected from: an optionally substituted linear or branched C 1 -C 10 alkyl, alkoxy, or alkeny group, a hydrogen atom, or a metal oxide residue of formula: wherein M is an atom selected from: titanium, zirconium, vanadium, molybdenum, tungsten and tungsten; Z, is an optionally substituted linear or branched C 1 -C 10 alkyl or alkenyl group, Z' and Z" represent each independently an optionally substituted linear or branched C 1 -C 10 alkyl or alkoxy group or a hydrogen atom, and the symbol * represents the site of connection with the terminal oxygen atom of the general formula, and n is an integer comprised from 1 to 10, preferably from 3 to 5. R are each independently selected from: an optionally substituted linear or branched C 1 -C 10 alkyl, alkoxy, or alkeny group; Y' and Y" are each independently selected from: an optionally substituted linear or branched C 1 -C 10 alkyl, alkoxy, or alkeny group, a hydrogen atom, or a metal oxide residue of formula: wherein M is an atom selected from: titanium, zirconium, vanadium, molybdenum, tungsten and tungsten; Z, is an optionally substituted linear or branched C 1 -C 10 alkyl or alkenyl group, Z' and Z" represent each independently an optionally substituted linear or branched C 1 -C 10 alkyl or alkoxy group or a hydrogen atom, and the symbol * represents the site of connection with the terminal oxygen atom of the general formula, and wherein M is an atom selected from: titanium, zirconium, vanadium, molybdenum, tungsten and tungsten; Z, is an optionally substituted linear or branched C 1 -C 10 alkyl or alkenyl group, Z' and Z" represent each independently an optionally substituted linear or branched C 1 -C 10 alkyl or alkoxy group or a hydrogen atom, and the symbol * represents the site of connection with the terminal oxygen atom of the general formula, and n is an integer comprised from 1 to 10, preferably from 3 to 5.
A method implemented in a wireless device for transmitting data in a wireless communication network, the method comprising: transmitting an access request message to a wireless access node in the wireless communication network: the access request message including a first information element indicating that the wireless device is requesting radio resources for a small data transmission and a second information element identifying a number of radio resources needed for the small data transmission; receiving an assignment message (220, 320) from the wireless access node in response to the access request message, wherein the assignment message includes an indication of the radio resources assigned for the small data transmission; coding a first data block in the small data transmission according to a first predetermined coding scheme, wherein the first data block includes an indication of a second coding scheme for additional data blocks in the small data transmission; coding one or more additional data blocks in the small data transmission according to the second coding scheme specified in the first data block; and transmitting the first data block and the one or more additional data blocks on the radio resources indicated by the assignment message (230, 350). the access request message including a first information element indicating that the wireless device is requesting radio resources for a small data transmission and a second information element identifying a number of radio resources needed for the small data transmission; receiving an assignment message (220, 320) from the wireless access node in response to the access request message, wherein the assignment message includes an indication of the radio resources assigned for the small data transmission; coding a first data block in the small data transmission according to a first predetermined coding scheme, wherein the first data block includes an indication of a second coding scheme for additional data blocks in the small data transmission; coding one or more additional data blocks in the small data transmission according to the second coding scheme specified in the first data block; and transmitting the first data block and the one or more additional data blocks on the radio resources indicated by the assignment message (230, 350).
Device for processing foetal heart rate data (D-RCF) from a foetal heart rate record, said data being obtained through a foetal heart rate recording device, said device comprising: - a module (MD-FCB) for determination of a reference heart rate, taking as input the foetal heart rate data (D-RCF) and delivering a reference heart rate value (vFCB); - a module (M-Fct) for fractionation of said data, as a function of a fractionation parameter (P-Fract) and the reference heart rate value (vFCB); ∘ means for determining a number of episodes of high variation of heart beats, the determining means taking as input the data constituting the recording of the foetal heart rate and delivering at least one value representative of a number of episodes of high variation (vNbHV); ∘ means for determining a number of episodes of low variation of heart beats, the determining means taking as input the data constituting the recording of the foetal heart rate and delivering at least one value representative of a number of episodes of low variation (vNbBV); - a module (M-CALC) for calculation of at least one representative characteristic of the foetal heart rate data (D-RCF) as a function of the reference heart rate value (vFCB); the device being characterised in that the calculation module comprises means for calculating a ratio between the number of episodes of high variation (vNbHV) and the number of episodes of low variation (vNbBV), the ratio being called ratio of episodes of variation (rEV). - a module (MD-FCB) for determination of a reference heart rate, taking as input the foetal heart rate data (D-RCF) and delivering a reference heart rate value (vFCB); - a module (M-Fct) for fractionation of said data, as a function of a fractionation parameter (P-Fract) and the reference heart rate value (vFCB); ∘ means for determining a number of episodes of high variation of heart beats, the determining means taking as input the data constituting the recording of the foetal heart rate and delivering at least one value representative of a number of episodes of high variation (vNbHV); ∘ means for determining a number of episodes of low variation of heart beats, the determining means taking as input the data constituting the recording of the foetal heart rate and delivering at least one value representative of a number of episodes of low variation (vNbBV); ∘ means for determining a number of episodes of high variation of heart beats, the determining means taking as input the data constituting the recording of the foetal heart rate and delivering at least one value representative of a number of episodes of high variation (vNbHV); ∘ means for determining a number of episodes of low variation of heart beats, the determining means taking as input the data constituting the recording of the foetal heart rate and delivering at least one value representative of a number of episodes of low variation (vNbBV); - a module (M-CALC) for calculation of at least one representative characteristic of the foetal heart rate data (D-RCF) as a function of the reference heart rate value (vFCB);
Method for encapsulating bioactive molecules with dairy proteins selected from the group comprising: • micellar casein alone, • micellar casein combined with native soluble dairy proteins, • micellar casein combined with denatured soluble dairy proteins, and • micellar casein combined with native soluble dairy proteins and with denatured soluble dairy proteins, said method being implemented in a closed circuit and comprising the following steps: a. bringing a solution of said dairy proteins having a pH comprised between 4.8 and 8 and containing at least one bioactive molecule to be encapsulated, in contact with chymosin, at a temperature comprised between 1 and 10°C, advantageously 3 and 5°C, until at least 85% of the caseinomacropeptide is cleaved, b. the progressive addition of the protein solution obtained in step a) to a fat in the presence of a surfactant at a temperature comprised between 1 and 10°C, advantageously between 3 and 5°C under stirring comprised between 100 and 1400 rpm, until droplets are formed and an emulsion is obtained, c. application of a temperature gradient ranging from 1 to 60°C, advantageously from 5 to 40°C, and d. a phase of separating the microparticles formed. • micellar casein alone, • micellar casein combined with native soluble dairy proteins, • micellar casein combined with denatured soluble dairy proteins, and • micellar casein combined with native soluble dairy proteins and with denatured soluble dairy proteins, a. bringing a solution of said dairy proteins having a pH comprised between 4.8 and 8 and containing at least one bioactive molecule to be encapsulated, in contact with chymosin, at a temperature comprised between 1 and 10°C, advantageously 3 and 5°C, until at least 85% of the caseinomacropeptide is cleaved, b. the progressive addition of the protein solution obtained in step a) to a fat in the presence of a surfactant at a temperature comprised between 1 and 10°C, advantageously between 3 and 5°C under stirring comprised between 100 and 1400 rpm, until droplets are formed and an emulsion is obtained, c. application of a temperature gradient ranging from 1 to 60°C, advantageously from 5 to 40°C, and d. a phase of separating the microparticles formed.
A method for manufacturing a pipe section of mineral wool for insulation of pipes, wherein a block of cured pipe section, emerging from the production line and consisting essentially of mineral wool which contains at least a binder and possibly also other additives, is brought to its final shape by cutting off its uneven ends, characterized in that at least a part of the cut-off ends of the blocks of pipe section are recovered, chopped to pieces and returned to an earlier stage of the production line, and, along with all materials contained therein, are reused in at least one previous manufacturing stage of said blocks of pipe section by adding the same on top of a still uncured, binder-containing mineral wool mat by spreading the chopped, cut-off ends over said mineral wool mat as a uniform layer substantially across its entire breadth, prior to winding it around a core and working it substantially into the shape of a section, yet in such a way, that no chopped, cut-off ends at all are spread over the leading and trailing portions of the mat.
A driver module for a lighting fixture having an array of LEDs and a control module separate from the driver module, the driver module comprising: a communication interface coupled to a communication bus; a power port ( PWR PORT); current control circuitry configured to: bidirectionally communicate with the control module over the communication bus via the communication interface; provide operational data of the driver module to the control module via the communication interface, wherein the operational data comprises at least one of driver module identifying information, ambient light information, or ambient temperature information; receive an instruction via the communication interface from the control module, wherein the instruction is provided at least in part based on the operational data of the driver module; and drive the array of LEDs in response to the instruction; and rectifier and power factor correction, PFC, circuitry and conversion circuitry adapted to convert an AC power input signal into at least one DC power signal that is used to supply the power to the current control circuitry within the driver module, the control module via the power port, and the array of LEDs. a communication interface coupled to a communication bus; a power port ( PWR PORT); current control circuitry configured to: bidirectionally communicate with the control module over the communication bus via the communication interface; provide operational data of the driver module to the control module via the communication interface, wherein the operational data comprises at least one of driver module identifying information, ambient light information, or ambient temperature information; receive an instruction via the communication interface from the control module, wherein the instruction is provided at least in part based on the operational data of the driver module; and drive the array of LEDs in response to the instruction; and bidirectionally communicate with the control module over the communication bus via the communication interface; provide operational data of the driver module to the control module via the communication interface, wherein the operational data comprises at least one of driver module identifying information, ambient light information, or ambient temperature information; receive an instruction via the communication interface from the control module, wherein the instruction is provided at least in part based on the operational data of the driver module; and drive the array of LEDs in response to the instruction; and rectifier and power factor correction, PFC, circuitry and conversion circuitry adapted to convert an AC power input signal into at least one DC power signal that is used to supply the power to the current control circuitry within the driver module, the control module via the power port, and the array of LEDs.
A catheter apparatus, comprising: an elongated shaft (116, 1306) having a proximal portion and a distal portion, wherein the distal portion of the shaft (116, 1306) is configured for intravascular delivery to a body vessel of a human patient; a therapeutic assembly (104, 1304) at the distal portion of the elongated shaft (116, 1306) comprising a pre-formed shape, and wherein the therapeutic assembly (104, 1304) is transformable between- a substantially straight delivery configuration; and a treatment configuration having the pre-formed helical shape to position the therapeutic assembly (104, 1304) in stable contact with a wall of the body vessel; an isolating element including a first portion operably connected to the therapeutic assembly (104, 1304), a second portion operably connected to the shaft (116, 1306), and a connector therebetween, wherein the isolating element is configured to allow the shaft (116, 1306) to move while the therapeutic assembly (104, 1304) remains stationary; and a locking and/or activation mechanism operably connected to the isolating element so that the release of the therapeutic assembly (104, 1304) from the shaft (116, 1306) can be controlled, wherein the distal portion of the elongated shaft (116, 1306) and the therapeutic assembly (104, 1304) are sized and configured for intravascular delivery into the pulmonary artery. an elongated shaft (116, 1306) having a proximal portion and a distal portion, wherein the distal portion of the shaft (116, 1306) is configured for intravascular delivery to a body vessel of a human patient; a therapeutic assembly (104, 1304) at the distal portion of the elongated shaft (116, 1306) comprising a pre-formed shape, and wherein the therapeutic assembly (104, 1304) is transformable between- a substantially straight delivery configuration; and a treatment configuration having the pre-formed helical shape to position the therapeutic assembly (104, 1304) in stable contact with a wall of the body vessel; an isolating element including a first portion operably connected to the therapeutic assembly (104, 1304), a second portion operably connected to the shaft (116, 1306), and a connector therebetween, wherein the isolating element is configured to allow the shaft (116, 1306) to move while the therapeutic assembly (104, 1304) remains stationary; and a locking and/or activation mechanism operably connected to the isolating element so that the release of the therapeutic assembly (104, 1304) from the shaft (116, 1306) can be controlled, wherein the distal portion of the elongated shaft (116, 1306) and the therapeutic assembly (104, 1304) are sized and configured for intravascular delivery into the pulmonary artery.
A field-effect transistor provided with a source electrode (6; 2704; 5006), a drain electrode (5; 2703; 5007), a gate insulator (3; 2705, 2706; 5003), a gate electrode (4; 2712; 5004), and an active layer (2; 2701; 5002) formed of an amorphous oxide, wherein the amorphous oxide is an In-Ga-Zn oxide or an In-Ga-Zn-Mg oxide which has an electron carrier concentration lower than 10 17 /cm 3 at a temperature of 25° C and in which the electron mobility tends to increase with the increase of the electron carrier concentration. wherein the amorphous oxide is an In-Ga-Zn oxide or an In-Ga-Zn-Mg oxide which has an electron carrier concentration lower than 10 17 /cm 3 at a temperature of 25° C and in which the electron mobility tends to increase with the increase of the electron carrier concentration.
A method of image adjustment for a body model image of a body model, comprising: receiving at least one digital garment image depicting a garment and a foreground object in a scene; extracting a garment image sprite from the digital garment image by separating the garment from the rest of the scene, including the foreground object; defining at least one sprite control point on a garment image sprite; defining, in the body model image, at least one output control point corresponding to each sprite control point; generating a mapping of each sprite control point to each output control point; and manipulating pixels of the garment image sprite based on the mapping so that pixels in the garment image sprite align with pixels in the body model image, thereby generating a manipulated image sprite. receiving at least one digital garment image depicting a garment and a foreground object in a scene; extracting a garment image sprite from the digital garment image by separating the garment from the rest of the scene, including the foreground object; defining at least one sprite control point on a garment image sprite; defining, in the body model image, at least one output control point corresponding to each sprite control point; generating a mapping of each sprite control point to each output control point; and manipulating pixels of the garment image sprite based on the mapping so that pixels in the garment image sprite align with pixels in the body model image, thereby generating a manipulated image sprite.
A surgical scaffold for soft tissue repair, said surgical scaffold comprising a sheet of non-filamentous polymeric material, at least a portion of the sheet surface comprising a plurality of through holes, wherein at least a portion of the sheet is mechanically anisotropic comprising a Young's modulus in a first direction along the sheet surface that is at least more than one time greater than a Young's modulus in a second direction along the sheet surface that is perpendicular to the first direction, and wherein the surgical scaffold comprises a body and two or more arms extending from the body.
A peritoneal dialysis machine comprising a source of dialysate; a patient line for passing dialysate to and from the patient's abdominal cavity; a controller for delivering a quantity of dialysate to the patient's abdomen via the patient line; a heater tray for heating a heater bag containing the dialysate before delivering it to the patient, the heater tray comprising a temperature sensor (212, 214); characterised by at least one processor configured to receive input data from the temperature sensor and determine, based on input data received from the temperature sensor over a period of time, a status of the heater bag other than a temperature of the heater bag.