mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: - a first body of an indirect bandgap semiconductor material; - a junction in the first body formed between a first region (12.1) of the first body and a second region (12.2) of the first body, the first region being of a first doping kind of a first concentration (n +) and the second region being of a second doping kind of a second concentration (p); - the first body comprising a third region (12.3) of the second doping kind of a third concentration (p +), and being spaced from the first region by the second region, so that the second region is sandwiched between the first region and the third region; and - a terminal arrangement connected to the first body and arranged to reverse bias the junction into a breakdown mode; - the device being configured such that a depletion region associated with the junction extends through the second region (12.2) of the first body and reaches the third region (12.3) of the first body, before the junction enters the breakdown mode; characterised in that - the device further comprises a second body of a translucent isolation material immediately adjacent the first body, the second body confining carriers moving through the second region (12.2) of the first body; - the first body, save for regions thereof where the terminal arrangement is connected to the first body, being wholly encapsulated by the second body. - a first body of an indirect bandgap semiconductor material; - a junction in the first body formed between a first region (12.1) of the first body and a second region (12.2) of the first body, the first region being of a first doping kind of a first concentration (n +) and the second region being of a second doping kind of a second concentration (p); - the first body comprising a third region (12.3) of the second doping kind of a third concentration (p +), and being spaced from the first region by the second region, so that the second region is sandwiched between the first region and the third region; and - a terminal arrangement connected to the first body and arranged to reverse bias the junction into a breakdown mode; - the device being configured such that a depletion region associated with the junction extends through the second region (12.2) of the first body and reaches the third region (12.3) of the first body, before the junction enters the breakdown mode; - the device further comprises a second body of a translucent isolation material immediately adjacent the first body, the second body confining carriers moving through the second region (12.2) of the first body; - the first body, save for regions thereof where the terminal arrangement is connected to the first body, being wholly encapsulated by the second body.
An isolated antibody, or antigen binding fragment thereof, wherein the antibody comprises: heavy chain amino acid sequence comprise all of the CDR selected from the group consisting of: (a) a CDRH1 as shown in SEQ ID NO: 3, (b) a CDRH2 as shown in SEQ ID NO: 4, (c) a CDRH3 as shown in SEQ ID NO: 5, and light chain amino acid sequence comprising all of the CDR selected from the group consisting of: (a) a CDRL1 as shown in SEQ ID NO: 6, (b) a CDRL2 as shown in SEQ ID NO: 7, (c) a CDRL3 as shown in SEQ ID NO: 8, recognizing a whole dengue virus particle. heavy chain amino acid sequence comprise all of the CDR selected from the group consisting of: (a) a CDRH1 as shown in SEQ ID NO: 3, (b) a CDRH2 as shown in SEQ ID NO: 4, (c) a CDRH3 as shown in SEQ ID NO: 5, and (a) a CDRH1 as shown in SEQ ID NO: 3, (b) a CDRH2 as shown in SEQ ID NO: 4, (c) a CDRH3 as shown in SEQ ID NO: 5, and light chain amino acid sequence comprising all of the CDR selected from the group consisting of: (a) a CDRL1 as shown in SEQ ID NO: 6, (b) a CDRL2 as shown in SEQ ID NO: 7, (c) a CDRL3 as shown in SEQ ID NO: 8, (a) a CDRL1 as shown in SEQ ID NO: 6, (b) a CDRL2 as shown in SEQ ID NO: 7, (c) a CDRL3 as shown in SEQ ID NO: 8, recognizing a whole dengue virus particle.
A method for monitoring a subject's autoregulation function state, comprising: (a) continuously sensing a tissue region of the subject with a tissue oximeter, the sensing producing first signals representative of at least one tissue oxygenation parameter during a period of time, and determining frequency domain tissue oxygen parameter values by performing a first frequency domain transformation of the first signals; (b) continuously measuring a blood pressure level of the subject using a blood pressure sensing device during the period of time, the measuring producing second signals representative of the blood pressure of the subject during the period of time, and determining frequency domain blood pressure values by performing a second frequency domain transformation of the second signals; (c) determining a coherence value indicative of the subject's autoregulation state in each of a plurality of different frequency bands using the frequency domain tissue oxygen parameter values and the frequency domain blood pressure values; and (d) determining a peak coherence value indicative of the subject's autoregulation state based on the determined coherence value from each of the plurality of different frequency bands. (a) continuously sensing a tissue region of the subject with a tissue oximeter, the sensing producing first signals representative of at least one tissue oxygenation parameter during a period of time, and determining frequency domain tissue oxygen parameter values by performing a first frequency domain transformation of the first signals; (b) continuously measuring a blood pressure level of the subject using a blood pressure sensing device during the period of time, the measuring producing second signals representative of the blood pressure of the subject during the period of time, and determining frequency domain blood pressure values by performing a second frequency domain transformation of the second signals; (c) determining a coherence value indicative of the subject's autoregulation state in each of a plurality of different frequency bands using the frequency domain tissue oxygen parameter values and the frequency domain blood pressure values; and (d) determining a peak coherence value indicative of the subject's autoregulation state based on the determined coherence value from each of the plurality of different frequency bands.
A method of diagnosing combinations of failures in a system, the method including: receiving (202, 204) symptom data including information relating to observed or detected symptoms in a system; generating (208, 210) failure data including information relating to at least one most probable failure in the system based on the symptom data, and processing the failure data and the symptom data using an L-best heuristic Ranked Algorithm inference technique in order to generate failure set data, the failure set data including information relating to at least one most probable combination of the failures that explain the symptoms, the method characterised by: performing a comparison based on a number of present symptoms in the symptom data and a user-configurable value to select a technique for use in the step of generating the failure data, wherein if the number of present symptoms is greater than the user-configurable value then an approximate marginal inference algorithm technique is selected; otherwise, an exact marginal inference technique is selected. receiving (202, 204) symptom data including information relating to observed or detected symptoms in a system; generating (208, 210) failure data including information relating to at least one most probable failure in the system based on the symptom data, and processing the failure data and the symptom data using an L-best heuristic Ranked Algorithm inference technique in order to generate failure set data, the failure set data including information relating to at least one most probable combination of the failures that explain the symptoms, the method characterised by: performing a comparison based on a number of present symptoms in the symptom data and a user-configurable value to select a technique for use in the step of generating the failure data, wherein if the number of present symptoms is greater than the user-configurable value then an approximate marginal inference algorithm technique is selected; otherwise, an exact marginal inference technique is selected. performing a comparison based on a number of present symptoms in the symptom data and a user-configurable value to select a technique for use in the step of generating the failure data, wherein if the number of present symptoms is greater than the user-configurable value then an approximate marginal inference algorithm technique is selected; otherwise, an exact marginal inference technique is selected.
A device for analyzing or processing a liquid sample, comprising: a first substrate; a second substrate; a fluidic channel having a lower wall formed by the first substrate and an upper wall formed by an inner surface of the second substrate; an inlet port to the fluidic channel through the second substrate; an outlet port from the fluidic channel through the second substrate, the outlet port forming a capillary valve with a burst pressure that is attainable by orienting the device at a tilt relative to level orientation such that the tilt cooperates with a column height of the liquid sample in the inlet port to drive flow of the liquid sample from the inlet port to the outlet port; and a wicking pad for absorbing at least a portion of the liquid sample after emerging from the fluidic channel through the outlet port, the wicking pad being placed on an outer surface of the second substrate at a distance away from the outlet port, the distance being sufficient to prevent the wicking pad from draining the fluidic channel. a first substrate; a second substrate; a fluidic channel having a lower wall formed by the first substrate and an upper wall formed by an inner surface of the second substrate; an inlet port to the fluidic channel through the second substrate; an outlet port from the fluidic channel through the second substrate, the outlet port forming a capillary valve with a burst pressure that is attainable by orienting the device at a tilt relative to level orientation such that the tilt cooperates with a column height of the liquid sample in the inlet port to drive flow of the liquid sample from the inlet port to the outlet port; and a wicking pad for absorbing at least a portion of the liquid sample after emerging from the fluidic channel through the outlet port, the wicking pad being placed on an outer surface of the second substrate at a distance away from the outlet port, the distance being sufficient to prevent the wicking pad from draining the fluidic channel.
High-temperature wear protective lining for use on metal bases comprising a first outer layer of ceramic material having a polished surface pointing away from the base, wherein the first layer consists of a plurality of by means of an adhesive agent interconnected plate-shaped elements, further comprising a second layer adjoining the first layer in the direction of the base, further comprising a third layer of a mineral body adjoining the second layer in the direction of the base, which is fabricated to relieve pressure of the following fourth layer, further comprising a fourth layer of a nanoporous insulation material based on pyrogenic silica, further comprising a fifth inner layer of a mineral body, where the middle layers (5, 7, 9) are each directly adjacent to the respectively adjacent layers and where the fifth layer is in contact with the base.
A renal failure therapy system comprising: a blood filter; a blood pump in fluid communication with the blood filter; a dialysis fluid pump (64, 96) in fluid communication with the blood filter; a blood line (14, 16) for connection to a patient, the blood line in fluid communication with the blood filter; a transmitter positioned and arranged to receive a transmit signal and to transmit a wave into blood flowing through the blood line, the wave based on the transmit signal; a receiver positioned and arranged to receive the wave and to emit a received signal based on the received wave; and at least one processor for initiating the transmit signal and for receiving the received signal, the processor configured to convert the transmit and received signals into a frequency domain, characterized in that the processor is configured to extract spectral values for the converted transmit and received signals, calculate at least one of a reflection coefficient or an impedance ratio using the spectral values, and analyze at least one of (i) an imaginary part of R, or (ii) an imaginary part of I, in combination with at least one of (iii) a phase shift of R, (iv) a phase shift of I, (v) a real part of R, (vi) a real part of I, (vii) a magnitude of R, and (viii) a magnitude of I, and apply an algorithm to the analyzed plural ones of (i) to (viii) to determine if an access disconnection event concerning fluid communication between the blood line and the patient has occurred. a blood filter; a blood pump in fluid communication with the blood filter; a dialysis fluid pump (64, 96) in fluid communication with the blood filter; a blood line (14, 16) for connection to a patient, the blood line in fluid communication with the blood filter; a transmitter positioned and arranged to receive a transmit signal and to transmit a wave into blood flowing through the blood line, the wave based on the transmit signal; a receiver positioned and arranged to receive the wave and to emit a received signal based on the received wave; and at least one processor for initiating the transmit signal and for receiving the received signal, the processor configured to convert the transmit and received signals into a frequency domain, characterized in that the processor is configured to extract spectral values for the converted transmit and received signals, calculate at least one of a reflection coefficient or an impedance ratio using the spectral values, and analyze at least one of (i) an imaginary part of R, or (ii) an imaginary part of I, in combination with at least one of (iii) a phase shift of R, (iv) a phase shift of I, (v) a real part of R, (vi) a real part of I, (vii) a magnitude of R, and (viii) a magnitude of I, and apply an algorithm to the analyzed plural ones of (i) to (viii) to determine if an access disconnection event concerning fluid communication between the blood line and the patient has occurred.
A panel system comprising: - a panel that can be moved along guide tracks and turned for opening the panel, - an upper first guide track and a lower second guide track, between which the panel is suspended, - a first guide track part coupled to the panel and arranged to follow the first guide track, - an opening which is provided in the first guide track and through which the first guide track part moves out of the first guide track when the panel is in a predetermined position for the turning of the panel, and - a guiding member fastened to the first guide track and arranged to support the panel during the turning, - a counter element which is fixed to the panel and is supported against the guiding member during the turning of the panel, wherein the counter element is also placed against the guiding member to prevent the turning of the panel when the first guide track part is at the opening but the panel is not yet placed in the predetermined position for the turning of the panel, characterized by - a first clearance between the counter element and the first guide track to allow the opening of the panel and to prevent the counter element from hitting the first guide track, - a second clearance between the guiding member and the panel to allow the opening of the panel and to prevent the panel from hitting the guiding member. - a panel that can be moved along guide tracks and turned for opening the panel, - an upper first guide track and a lower second guide track, between which the panel is suspended, - a first guide track part coupled to the panel and arranged to follow the first guide track, - an opening which is provided in the first guide track and through which the first guide track part moves out of the first guide track when the panel is in a predetermined position for the turning of the panel, and - a guiding member fastened to the first guide track and arranged to support the panel during the turning, - a counter element which is fixed to the panel and is supported against the guiding member during the turning of the panel, wherein the counter element is also placed against the guiding member to prevent the turning of the panel when the first guide track part is at the opening but the panel is not yet placed in the predetermined position for the turning of the panel, characterized by - a first clearance between the counter element and the first guide track to allow the opening of the panel and to prevent the counter element from hitting the first guide track, - a second clearance between the guiding member and the panel to allow the opening of the panel and to prevent the panel from hitting the guiding member.
An ink jet printing method comprising the jetting of an aqueous ink jet ink onto a fabric containing cellulose fibres followed by a drying step, the ink jet ink comprises a polyurethane resin having an anionic group and a polyalkylene oxide in a side chain thereof, wherein the polyurethane resin is obtained by reacting a polyester polyol, a polyether diol, a polyol or amine containing an anionic group and a polyisocyanate, and wherein the polyester polyol is obtained by reacting an aromatic polycarboxylic acid and a polyol.
An array (62, 64, 66, 86, 92, 100) of micro tip microplasma devices, comprising a plurality of microtip microplasma devices, wherein each microtip microplasma device comprises a first metal microtip (12a, 50a) opposing a second metal microtip (12b, 50b) with a gap (16, 48) therebetween; and wherein said first metal microtip comprises a portion of a first electrode and said second metal microtip comprises a portion of a second electrode, characterized in that said first and second metal microtips being encapsulated in metal oxide that electrically isolates and physically connects the first and second metal microtips; and said first and second electrodes and said metal oxide defining a mesh (30, 40) with microscale openings therein.
A method for detecting a defect in at least one metal wire of a set of metal wires, in particular in a cable, the method comprising a: - step of emitting a high-frequency ultrasound signal (Se) centred around a so-called specific frequency in the metal wire; - step of reflecting said ultrasound signal into the metal wire; and - step of receiving the reflected ultrasound signal; the emitted ultrasound signal (Se) allowing an excitation of at least one high-frequency wave able to propagate in a longitudinal direction (z=L) of the metal wire (2, 3) and having a phase velocity ( V φ) slightly higher than a velocity ( c p) of a compression volume wave in the metal from which the metal wire (2, 3) is made, the metal wire having a radius, wherein the specific frequency-radius product, expressed in MHz.mm, is between 10 and 20, and preferably between 11 and 17.5, in which a phase velocity ratio V φ to the speed c P is between 1 and 1.05, preferably between 1 and 1.025. - step of emitting a high-frequency ultrasound signal (Se) centred around a so-called specific frequency in the metal wire; - step of reflecting said ultrasound signal into the metal wire; and - step of receiving the reflected ultrasound signal; the emitted ultrasound signal (Se) allowing an excitation of at least one high-frequency wave able to propagate in a longitudinal direction (z=L) of the metal wire (2, 3) and having a phase velocity ( V φ) slightly higher than a velocity ( c p) of a compression volume wave in the metal from which the metal wire (2, 3) is made, the metal wire having a radius, wherein the specific frequency-radius product, expressed in MHz.mm, is between 10 and 20, and preferably between 11 and 17.5, in which a phase velocity ratio V φ to the speed c P is between 1 and 1.05, preferably between 1 and 1.025.
An image forming apparatus connectable to multiple hosts (2,3,4), the apparatus comprising, a plurality of Universal Serial Bus, USB, interfaces (111,112,113) to couple with the respective multiple hosts (2,3,4) to receive job request data for image forming jobs requested by the multiple hosts (2,3,4); a plurality of USB driver modules (121,122,123) to process the job request data received via the respective multiple USB interfaces (111,112,113); Characterized by further comprising a USB data manager to generate job data in parallel that corresponds to each of types of the requested image forming jobs by using the processed job request data; a main controller to control the image forming apparatus to perform the image forming jobs in parallel based on the generated job data; and a buffer unit to store and read the job request data processed in each of the USB driver modules (121,122,123), wherein the buffer unit is connected to the USB driver module and performs storage and read-out functions with respect to the job request data.
A wireless communication device comprising: a first transceiver comprising a first frequency synthesizer; a second transceiver comprising a wakeup receiver; and a control unit configured to control operation of the wireless communication device, characterized in that the first frequency synthesizer comprises a first digitally controlled oscillator and a crystal oscillator; the second transceiver further comprises a second transmitter and a second digitally controlled oscillator connected to the wakeup receiver and second transmitter; and the second transmitter is configured to transmit periodically a signal to a base station, the signal is modulated by a code identifying the wireless communication device and transmitted at a frequency set by the second digitally controlled oscillator. a first transceiver comprising a first frequency synthesizer; a second transceiver comprising a wakeup receiver; and a control unit configured to control operation of the wireless communication device, characterized in that the first frequency synthesizer comprises a first digitally controlled oscillator and a crystal oscillator; the second transceiver further comprises a second transmitter and a second digitally controlled oscillator connected to the wakeup receiver and second transmitter; and the second transmitter is configured to transmit periodically a signal to a base station, the signal is modulated by a code identifying the wireless communication device and transmitted at a frequency set by the second digitally controlled oscillator.
A casting apparatus to cast a web of a material containing alkaloids, the casting apparatus including: o a casting box adapted to contain a slurry to be cast to form the web of a material containing alkaloids, the casting box defining one or more lateral walls (12, 14); o a movable support; o a casting blade apt to cast the slurry contained in the casting box onto the movable support so as to form the cast web; characterized in that it further comprises a slidable lid apt to slide on the one or more lateral walls (12, 14) of the casting box. o a casting box adapted to contain a slurry to be cast to form the web of a material containing alkaloids, the casting box defining one or more lateral walls (12, 14); o a movable support; o a casting blade apt to cast the slurry contained in the casting box onto the movable support so as to form the cast web; characterized in that it further comprises a slidable lid apt to slide on the one or more lateral walls (12, 14) of the casting box. characterized in that it further comprises a slidable lid apt to slide on the one or more lateral walls (12, 14) of the casting box.