mhurhangee/ep-ind-claims huggingface dataset:
A blood analyzer comprising: a control system configured to control the operation of the analyzer, a sensor (310a-d) configured to measure at least parameters pH, p O 2 and p CO 2 of a blood sample, exposure means configured to expose the sensor to the blood sample, the exposure means comprising: an inlet probe suitable for transfer of a test sample from a blood sampler (130, 440, 500); reporting means configured to report the parameters of the blood sample to an operator, and a sample handler comprising: an interface providing operational communication with a blood analyzer comprising transfer means for allowing transfer of a test sample from a sampler held in the handler to the analyzer, a sampler bed (120a-e), which is moveable relative to an inlet probe of the blood analyzer, for receiving a blood sampler (130, 440, 500) and a stirring element, and moving means (160, 460, 510, 520) configured to move the stirring element (150, 420, 470, 490) in the blood sampler (130, 440, 500) when the blood sampler (130, 440, 500) is arranged in the blood sampler bed (120a-e) and; identification means for reading identification data of the blood sampler. a control system configured to control the operation of the analyzer, a sensor (310a-d) configured to measure at least parameters pH, p O 2 and p CO 2 of a blood sample, exposure means configured to expose the sensor to the blood sample, the exposure means comprising: an inlet probe suitable for transfer of a test sample from a blood sampler (130, 440, 500); reporting means configured to report the parameters of the blood sample to an operator, and an inlet probe suitable for transfer of a test sample from a blood sampler (130, 440, 500); reporting means configured to report the parameters of the blood sample to an operator, and a sample handler comprising: an interface providing operational communication with a blood analyzer comprising transfer means for allowing transfer of a test sample from a sampler held in the handler to the analyzer, a sampler bed (120a-e), which is moveable relative to an inlet probe of the blood analyzer, for receiving a blood sampler (130, 440, 500) and a stirring element, and moving means (160, 460, 510, 520) configured to move the stirring element (150, 420, 470, 490) in the blood sampler (130, 440, 500) when the blood sampler (130, 440, 500) is arranged in the blood sampler bed (120a-e) and; identification means for reading identification data of the blood sampler. an interface providing operational communication with a blood analyzer comprising transfer means for allowing transfer of a test sample from a sampler held in the handler to the analyzer, a sampler bed (120a-e), which is moveable relative to an inlet probe of the blood analyzer, for receiving a blood sampler (130, 440, 500) and a stirring element, and moving means (160, 460, 510, 520) configured to move the stirring element (150, 420, 470, 490) in the blood sampler (130, 440, 500) when the blood sampler (130, 440, 500) is arranged in the blood sampler bed (120a-e) and; identification means for reading identification data of the blood sampler.
A fault isolation apparatus for an inverter configured for coupling to an external power supply, the fault isolation apparatus comprising: a plurality of fault detection devices (104a, 104b), each configured to: complete an electrical path between the inverter and the external power supply, and detect a fault along its respective electrical path; and a controller configured to instruct each fault detection device (104a, 104b) to complete its respective electrical path only when the path is devoid of the detected fault, wherein: each fault detection device (104a, 104b) comprises a detection circuit (110a, 110b) and a switch (112a, 112b) connected to be controlled by the controller, and characterised in that each detection circuit (110a, 110b) comprises a fuse, a current sensor and a first resistor all connected in series between the respective electrical path and ground, and further comprising a second resistor electrically connected in parallel with the fuse. a plurality of fault detection devices (104a, 104b), each configured to: complete an electrical path between the inverter and the external power supply, and detect a fault along its respective electrical path; and complete an electrical path between the inverter and the external power supply, and detect a fault along its respective electrical path; and a controller configured to instruct each fault detection device (104a, 104b) to complete its respective electrical path only when the path is devoid of the detected fault, wherein: each fault detection device (104a, 104b) comprises a detection circuit (110a, 110b) and a switch (112a, 112b) connected to be controlled by the controller, and characterised in that each detection circuit (110a, 110b) comprises a fuse, a current sensor and a first resistor all connected in series between the respective electrical path and ground, and further comprising a second resistor electrically connected in parallel with the fuse. each fault detection device (104a, 104b) comprises a detection circuit (110a, 110b) and a switch (112a, 112b) connected to be controlled by the controller, and characterised in that each detection circuit (110a, 110b) comprises a fuse, a current sensor and a first resistor all connected in series between the respective electrical path and ground, and further comprising a second resistor electrically connected in parallel with the fuse.
Transport attachment for a plate conveyor (100; 200) for conveying conveyed goods with - a transport plate for conveying the conveyed material on a transport surface of the transport plate; and - a connecting device comprising a fastening means for fastening the transport attachment to a traction means of the plate conveyor (100; 200) driven along a conveying direction; and - a plate receptacle for receiving a transport plate adjacent in the conveying direction; characterised in that the plate receptacle is formed in the vertical direction between a lower surface of the transport plate and an engagement finger of an engagement member formed on the lower surface of the transport plate. - a transport plate for conveying the conveyed material on a transport surface of the transport plate; and - a connecting device comprising a fastening means for fastening the transport attachment to a traction means of the plate conveyor (100; 200) driven along a conveying direction; and - a plate receptacle for receiving a transport plate adjacent in the conveying direction;
A method for producing a chitosan fiber by an electrospinning method which comprises applying a voltage to a solution of chitosan to allow a jet of the solution to spurt, forming a chitosan fiber, wherein the voltage applied to the solution of chitosan to allow the solution to spurt is a negative voltage having the opposite polarity to the charge of molecular chains of chitosan in the solution.
An endovascular apparatus, comprising: an outer catheter (102, 212) having a proximal end and a distal end and defining a cannula, the outer catheter (102, 212) being provided with an expandable portion (108, 214) capable of being expanded to press against a vessel thereby preventing the outer catheter (102, 212) from moving longitudinally within the vessel; a sleeve inside the outer catheter (102, 212) and movable longitudinally relative to the outer catheter (102, 212), the sleeve having an inner lumen; an expandable capture device (110, 216) positioned in the inner lumen of the sleeve and fixed to an end of an introduction shaft arranged to push the expandable capture device along a length of the outer catheter and out the distal end of the sleeve, wherein the expandable capture device is arranged to expand radially outward when not being held within the sleeve; and a compression device (112, 220) positioned in a lumen space within the introduction shaft and arranged to be slid linearly out of the introduction shaft and past the expandable capture device, and to be expanded radially outward and drawn backward toward the expandable capture device. an outer catheter (102, 212) having a proximal end and a distal end and defining a cannula, the outer catheter (102, 212) being provided with an expandable portion (108, 214) capable of being expanded to press against a vessel thereby preventing the outer catheter (102, 212) from moving longitudinally within the vessel; a sleeve inside the outer catheter (102, 212) and movable longitudinally relative to the outer catheter (102, 212), the sleeve having an inner lumen; an expandable capture device (110, 216) positioned in the inner lumen of the sleeve and fixed to an end of an introduction shaft arranged to push the expandable capture device along a length of the outer catheter and out the distal end of the sleeve, wherein the expandable capture device is arranged to expand radially outward when not being held within the sleeve; and a compression device (112, 220) positioned in a lumen space within the introduction shaft and arranged to be slid linearly out of the introduction shaft and past the expandable capture device, and to be expanded radially outward and drawn backward toward the expandable capture device.
A network element for use in a mobile communications system, the network element configured to: provide a wireless access interface comprising a plurality of orthogonal frequency division multiplex, OFDM, symbols for communicating data to and/or from the mobile communications devices, the wireless access interface providing on a downlink a host carrier, the host carrier providing a plurality of resource elements across a first frequency range, transmit data for a first group of mobile communications devices, wherein the data is distributed within the plurality of resource elements across the first frequency range; provide a virtual carrier via the wireless access interface, the virtual carrier providing one or more resource elements within a second frequency range which is within and smaller than the first frequency range, and wherein the resource elements comprising the virtual carrier are not on OFDM symbols used for a control region of the host carrier; and transmit data for a second group of mobile communications devices having a reduced bandwidth capability compared to the first group via the virtual carrier. provide a wireless access interface comprising a plurality of orthogonal frequency division multiplex, OFDM, symbols for communicating data to and/or from the mobile communications devices, the wireless access interface providing on a downlink a host carrier, the host carrier providing a plurality of resource elements across a first frequency range, transmit data for a first group of mobile communications devices, wherein the data is distributed within the plurality of resource elements across the first frequency range; provide a virtual carrier via the wireless access interface, the virtual carrier providing one or more resource elements within a second frequency range which is within and smaller than the first frequency range, and wherein the resource elements comprising the virtual carrier are not on OFDM symbols used for a control region of the host carrier; and transmit data for a second group of mobile communications devices having a reduced bandwidth capability compared to the first group via the virtual carrier.
An agent comprising brain-derived neurotrophic factor (BDNF) for use in a method of improving recovery of a mammal after cerebral ischemia, wherein said method comprises depositing a hydrogel depot delivery system comprising said BDNF into the infarct cavity in the brain of said mammal and wherein said depot delivery system provides sustained release of said BDNF over time.
A solid-state imaging element constituted by many pixels formed in a substrate, comprising: a photoelectric conversion unit formed for each of the pixels and configured to convert incident light into a charge; a charge storage unit formed in a substrate for each of the pixels configured to temporarily hold the converted charge; and a first light shielding unit (16, 21) formed between the pixels and having a predetermined length in a thickness direction of the substrate, wherein the charge storage unit is formed below a cross portion where the first light shielding unit (16, 21) formed between pixels adjacent to each other in a longitudinal direction crosses the first light shielding unit (16, 21) formed between pixels adjacent to each other in a lateral direction, a second light shielding unit covering a light incident surface side of the cross portion, the pixels include at least a first pixel sensitive to light having a first wavelength, a second pixel sensitive to a second wavelength equal or longer than the first wavelength, and a third pixel sensitive to a third wavelength longer than the second wavelength, wherein the first light shielding unit (16, 21) is formed between the first or second pixel and the third pixel, wherein when viewed in a cross-section a first distance (a) between a first end of the first light shielding unit, which is adjacent to third pixel, and the center of the charge storage unit below the first light shielding unit is longer than a second distance (b) between a second end of the first light shielding unit, which is adjacent to the first or the second pixel, and the center of the charge storage unit below the first light shielding unit. a photoelectric conversion unit formed for each of the pixels and configured to convert incident light into a charge; a charge storage unit formed in a substrate for each of the pixels configured to temporarily hold the converted charge; and a first light shielding unit (16, 21) formed between the pixels and having a predetermined length in a thickness direction of the substrate, wherein the charge storage unit is formed below a cross portion where the first light shielding unit (16, 21) formed between pixels adjacent to each other in a longitudinal direction crosses the first light shielding unit (16, 21) formed between pixels adjacent to each other in a lateral direction, a second light shielding unit covering a light incident surface side of the cross portion, the pixels include at least a first pixel sensitive to light having a first wavelength, a second pixel sensitive to a second wavelength equal or longer than the first wavelength, and a third pixel sensitive to a third wavelength longer than the second wavelength, wherein the first light shielding unit (16, 21) is formed between the first or second pixel and the third pixel,
A method for monitoring a temperature of a brake system of a vehicle, the method comprising: determining a dynamic warning temperature profile for the brake system, wherein the dynamic warning temperature profile is based on a warning temperature value of the brake system and a threshold value indicative of the number of times the temperature of the brake system exceeds the warning temperature value; monitoring the number of times when the temperature of the brake system exceeds the warning temperature value of the dynamic warning temperature profile; and when the number of times the temperature of the brake system exceeds the threshold value, adjusting the warning temperature level of the dynamic warning temperature profile to a reduced warning temperature level. determining a dynamic warning temperature profile for the brake system, wherein the dynamic warning temperature profile is based on a warning temperature value of the brake system and a threshold value indicative of the number of times the temperature of the brake system exceeds the warning temperature value; monitoring the number of times when the temperature of the brake system exceeds the warning temperature value of the dynamic warning temperature profile; and when the number of times the temperature of the brake system exceeds the threshold value, adjusting the warning temperature level of the dynamic warning temperature profile to a reduced warning temperature level.
An interconnect device comprising: a substrate having at least one groove formed therein, the groove including a first and second sidewall (42,44) and a first end disposed at an end of the sidewalls; an optical fiber disposed in the groove, the optical fiber having a cylindrical body, an endface formed on an end of the cylindrical body, and a mirror formed on the endface; and a light source adapted to transmit light to the mirror to launch light through the optical fiber, characterised in that: the mirror is a multi-faceted mirror; and the groove first end is formed at an angle α, and at least one planar segment of the multi-faceted mirror is formed at the angle α. a substrate having at least one groove formed therein, the groove including a first and second sidewall (42,44) and a first end disposed at an end of the sidewalls; an optical fiber disposed in the groove, the optical fiber having a cylindrical body, an endface formed on an end of the cylindrical body, and a mirror formed on the endface; and a light source adapted to transmit light to the mirror to launch light through the optical fiber, characterised in that: the mirror is a multi-faceted mirror; and the groove first end is formed at an angle α, and at least one planar segment of the multi-faceted mirror is formed at the angle α. the mirror is a multi-faceted mirror; and the groove first end is formed at an angle α, and at least one planar segment of the multi-faceted mirror is formed at the angle α.
An isolated polypeptide having xylanase activity, selected from a polypeptide comprising an amino acid sequence having at least 99% identity to the mature polypeptide of SEQ ID NO: 2.
A user equipment, UE, comprising: transceiver circuitry to: transmit, to an evolved node B, eNB,, data in a first Physical Uplink Shared Channel, PUSCH, transmission; and receive, from the eNB, a Hybrid Automatic Repeat reQuest, HARQ, negative-acknowledgement, NACK, in a downlink transmission, wherein the HARQ NACK is received at a predefined or configured level of repetition across a plurality of subframes of the downlink transmission; and logic circuitry coupled with the transceiver circuitry, the logic circuitry to determine an uplink starting subframe, based on the predefined or configured level of repetition, at which to begin retransmission of the data in a second PUSCH transmission in response to the HARQ NACK, wherein the downlink transmission includes a Physical HARQ Indicator Channel, PHICH, transmission and a Physical Downlink Control Channel, PDCCH, transmission, and the logic circuitry is to determine the uplink starting subframe of the second PUSCH transmission based on a last subframe of the PHICH transmission and the PDCCH transmission. transceiver circuitry to: transmit, to an evolved node B, eNB,, data in a first Physical Uplink Shared Channel, PUSCH, transmission; and receive, from the eNB, a Hybrid Automatic Repeat reQuest, HARQ, negative-acknowledgement, NACK, in a downlink transmission, wherein the HARQ NACK is received at a predefined or configured level of repetition across a plurality of subframes of the downlink transmission; and logic circuitry coupled with the transceiver circuitry, the logic circuitry to determine an uplink starting subframe, based on the predefined or configured level of repetition, at which to begin retransmission of the data in a second PUSCH transmission in response to the HARQ NACK, transmit, to an evolved node B, eNB,, data in a first Physical Uplink Shared Channel, PUSCH, transmission; and receive, from the eNB, a Hybrid Automatic Repeat reQuest, HARQ, negative-acknowledgement, NACK, in a downlink transmission, wherein the HARQ NACK is received at a predefined or configured level of repetition across a plurality of subframes of the downlink transmission; and logic circuitry coupled with the transceiver circuitry, the logic circuitry to determine an uplink starting subframe, based on the predefined or configured level of repetition, at which to begin retransmission of the data in a second PUSCH transmission in response to the HARQ NACK, wherein the downlink transmission includes a Physical HARQ Indicator Channel, PHICH, transmission and a Physical Downlink Control Channel, PDCCH, transmission, and the logic circuitry is to determine the uplink starting subframe of the second PUSCH transmission based on a last subframe of the PHICH transmission and the PDCCH transmission.
An attachment device for biological implantation having a longitudinal axis and a longitudinal length comprising: a screw having a radially expandable section (6; 20, 22, 24) and a radially non-expandable section, wherein the radially expandable section has a radially expandable radius; and an expander element slidably received by the screw, wherein the expander element comprises an expander head, wherein the expander element comprises a first expander finger longitudinally extending from the expander head, and a second expander finger longitudinally extending from the expander head, wherein the screw comprises radially extending threads (14, 18), and wherein the expander element comprises radially extending threads, characterized in that the screw has a first cell and a second cell, and that the first cell is longitudinally offset from the second cell. a screw having a radially expandable section (6; 20, 22, 24) and a radially non-expandable section, wherein the radially expandable section has a radially expandable radius; and an expander element slidably received by the screw, wherein the expander element comprises an expander head, wherein the expander element comprises a first expander finger longitudinally extending from the expander head, and a second expander finger longitudinally extending from the expander head, wherein the screw comprises radially extending threads (14, 18), and wherein the expander element comprises radially extending threads, characterized in that the screw has a first cell and a second cell, and that the first cell is longitudinally offset from the second cell.
A method for obtaining a carbon-phenol resin molding compound with a nitrogen content of 0.3 wt% or less by reacting a phenol with an aldehyde in the presence of a catalyst, while mixing with a carbon powder, wherein a content of said carbon powder in the molding compound is 75 wt% or more, said method being characterized in that said catalyst is selected from the group consisting of tertiary amines, carbonates, hydroxides and oxides of alkali metals or alkali earth metals.
A flat solid medium for storing a sample of a biological material, selected from the group consisting of blood, plasma, saliva, urine and buccal cells, containing a biomolecule thereon, said solid medium comprising a solid matrix having sorbed thereto or incorporated therein a composition consisting of an alginate (2-100% w/ v) having antimicrobial activity and a protein denaturing reagent, wherein said solid matrix is selected from the group consisting of a cellulose matrix, a nitrocellulose matrix, a carboxymethylcellulose matrix, a polyester matrix, a polyamide matrix, a polytetrafluoroethylene matrix and a porous ceramic matrix.