mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of assessing risk of mortality of a cancer patient, the method comprising; using a model to generate a score indicative of a risk of mortality of the cancer patient by inputting cancer patient information to the model; and assessing the risk of mortality by comparing the generated score to one or more predetermined threshold values, or by comparing the generated score to generated scores for other cancer patients in a same group, wherein the patient information comprises data corresponding to each of the following parameters: (i) Level of albumin in serum or plasma; (ii) Eastern cooperative oncology group (ECOG) performance status; (iii) Ratio of lymphocytes to leukocytes in blood; (iv) smoking status; (v) Age; (vi) TNM classification of malignant tumours stage; (vii) Heart rate; (viii) Chloride or sodium level in serum or plasma; (ix) Urea nitrogen level in serum or plasma; (x) Gender; (xi) Haemoglobin or haematocrit level in blood; (xii) Aspartate aminotransferase enzymatic activity level in serum or plasma; and (xiii) Alanine aminotransferase enzymatic activity level in serum or plasma. using a model to generate a score indicative of a risk of mortality of the cancer patient by inputting cancer patient information to the model; and assessing the risk of mortality by comparing the generated score to one or more predetermined threshold values, or by comparing the generated score to generated scores for other cancer patients in a same group, wherein the patient information comprises data corresponding to each of the following parameters: (i) Level of albumin in serum or plasma; (ii) Eastern cooperative oncology group (ECOG) performance status; (iii) Ratio of lymphocytes to leukocytes in blood; (iv) smoking status; (v) Age; (vi) TNM classification of malignant tumours stage; (vii) Heart rate; (viii) Chloride or sodium level in serum or plasma; (ix) Urea nitrogen level in serum or plasma; (x) Gender; (xi) Haemoglobin or haematocrit level in blood; (xii) Aspartate aminotransferase enzymatic activity level in serum or plasma; and (xiii) Alanine aminotransferase enzymatic activity level in serum or plasma. (i) Level of albumin in serum or plasma; (ii) Eastern cooperative oncology group (ECOG) performance status; (iii) Ratio of lymphocytes to leukocytes in blood; (iv) smoking status; (v) Age; (vi) TNM classification of malignant tumours stage; (vii) Heart rate; (viii) Chloride or sodium level in serum or plasma; (ix) Urea nitrogen level in serum or plasma; (x) Gender; (xi) Haemoglobin or haematocrit level in blood; (xii) Aspartate aminotransferase enzymatic activity level in serum or plasma; and (xiii) Alanine aminotransferase enzymatic activity level in serum or plasma.
Lubricant sensor comprising a housing, an IR light source which is arranged in the housing, a first IR detector which is arranged in the housing, and a plate which is inserted into an opening in the housing, wherein the plate is transmissive in the spectral range of the IR light source, characterized in that the plate is provided with an antireflection coating at least for the spectral range of the IR light source in the direction of the interior of the housing, and in that a second IR detector is arranged in the housing, wherein the first IR detector is arranged in such a way that it is protected against direct irradiation by the IR light source, and wherein the second IR detector is arranged in such a way that it is protected against the incident light which is scattered on the lubricant.
Wind turbine blade mould shell section of a wind turbine blade mould shell (52, 54) comprising: - a mould surface (411, 412) for receiving a fibre-reinforced composite for a blade; - a connecting edge (407, 408) arranged laterally at the mould shell section (401, 402), said connecting edge (407, 408) being adapted to provide an interface for another mould shell section (402, 401) of said mould shell (52, 54); and - said mould surface having a recessed portion (419, 420) adjoining said connecting edge (407, 408), said recessed portion (419, 420) being adapted to accommodate a portion of a bridging sheet; and - wherein said recessed portion recesses from a normal level of the mould surface (411, 412), the recessed portion (419, 420) comprising a straight section having an oblong cross section adjoining the connecting edges (407, 409), and a tapered section tapering from the level of the straight section to the level of the normal level of the mould surface (411, 412). - a mould surface (411, 412) for receiving a fibre-reinforced composite for a blade; - a connecting edge (407, 408) arranged laterally at the mould shell section (401, 402), said connecting edge (407, 408) being adapted to provide an interface for another mould shell section (402, 401) of said mould shell (52, 54); and - said mould surface having a recessed portion (419, 420) adjoining said connecting edge (407, 408), said recessed portion (419, 420) being adapted to accommodate a portion of a bridging sheet; and - wherein said recessed portion recesses from a normal level of the mould surface (411, 412), the recessed portion (419, 420) comprising a straight section having an oblong cross section adjoining the connecting edges (407, 409), and a tapered section tapering from the level of the straight section to the level of the normal level of the mould surface (411, 412).
A handlebar carrier for coupling a handlebar to a support shaft of a power-operated-tool, the handlebar carrier comprising a carrier body and handlebar clamp attached to the carrier body, the handlebar clamp movably coupling the handlebar to the carrier body, the handlebar moveable between an operational position and a first non-operational position, characterised in that the handlebar carrier includes a motor kill-switch operable to prevent operation of the motor when the handlebar is moved out of the operational position.
A cannula system for accessing a surgical field, said cannula system comprising: a cannula comprising a cannula tube with a proximal end and a distal end and a lumen extending from the proximal end to the distal end; and a lighting assembly secured to the proximal end of the cannula tube; wherein said lighting assembly comprises a light source and a focusing lens, said light source having a first beam axis and a first beam angle (α), said first beam axis aligned with an optical axis of said focusing lens, said lighting assembly having an output beam angle (β) and an output beam axis, wherein said output beam axis is directed toward the distal end of the cannula tube, wherein said output beam angle (β) is smaller than said first beam angle (α); wherein the lumen and lighting assembly are configured to allow passage of surgical tools through the cannula while the lighting assembly is disposed on the proximal end of the cannula tube; whereby the lighting assembly provides illumination for the surgical field with reduced glare within the cannula tube. a cannula comprising a cannula tube with a proximal end and a distal end and a lumen extending from the proximal end to the distal end; and a lighting assembly secured to the proximal end of the cannula tube; wherein said lighting assembly comprises a light source and a focusing lens, said light source having a first beam axis and a first beam angle (α), said first beam axis aligned with an optical axis of said focusing lens, said lighting assembly having an output beam angle (β) and an output beam axis, wherein said output beam axis is directed toward the distal end of the cannula tube, wherein said output beam angle (β) is smaller than said first beam angle (α); wherein the lumen and lighting assembly are configured to allow passage of surgical tools through the cannula while the lighting assembly is disposed on the proximal end of the cannula tube; whereby the lighting assembly provides illumination for the surgical field with reduced glare within the cannula tube.
A hub image retrieval method, comprising: performing feature extraction on hub image to be processed containing a target hub, characterized in obtaining a hub feature to be processed containing N sub-hub features, wherein the N sub-hub features at least include information characterizing the features of a hub window of the target hub, N is an integer greater than zero; determining similarities between candidate hub features of each candidate hub image in a plurality of candidate hub images and the hub features to be processed; selecting a candidate hub image matching the hub image to be processed from the plurality of candidate hub images based on the determined respective similarities; wherein the sub-hub feature comprises at least one of: a first sub-hub feature characterizing a number of hub windows of the target hub in the hub image to be processed; a second sub-hub feature characterizing a shape of a hub window of the target hub in the hub image to be processed. performing feature extraction on hub image to be processed containing a target hub, characterized in obtaining a hub feature to be processed containing N sub-hub features, wherein the N sub-hub features at least include information characterizing the features of a hub window of the target hub, N is an integer greater than zero; determining similarities between candidate hub features of each candidate hub image in a plurality of candidate hub images and the hub features to be processed; selecting a candidate hub image matching the hub image to be processed from the plurality of candidate hub images based on the determined respective similarities; wherein the sub-hub feature comprises at least one of: a first sub-hub feature characterizing a number of hub windows of the target hub in the hub image to be processed; a second sub-hub feature characterizing a shape of a hub window of the target hub in the hub image to be processed. a first sub-hub feature characterizing a number of hub windows of the target hub in the hub image to be processed; a second sub-hub feature characterizing a shape of a hub window of the target hub in the hub image to be processed.
A mobile aggregate processing plant for screening aggregate material comprising a mobile chassis having a main frame and a vibrating screening unit mounted via one or more absorbers on a screen-mounting frame, and able to provide at least one aggregate discharge stream therethrough, wherein the mobile aggregate processing plant comprises one or more sub-frames and wherein the screen-mounting frame is a first sub-frame, and wherein the first sub-frame is mounted on the main frame of the mobile aggregate processing plant, characterised in that the vibrating screening unit is moveable relative to the screen-mounting frame between a first in-use position, and at least a second position able to provide an access portal between the vibrating screening unit and the first sub-frame when not in use, and wherein the vibrating screening unit is moveable in an upward direction by a hydraulic ram and piston located between the vibrating screening unit and the screen-mounting frame. wherein the mobile aggregate processing plant comprises one or more sub-frames and wherein the screen-mounting frame is a first sub-frame, and wherein the first sub-frame is mounted on the main frame of the mobile aggregate processing plant, characterised in that the vibrating screening unit is moveable relative to the screen-mounting frame between a first in-use position, and at least a second position able to provide an access portal between the vibrating screening unit and the first sub-frame when not in use, and wherein the vibrating screening unit is moveable in an upward direction by a hydraulic ram and piston located between the vibrating screening unit and the screen-mounting frame.
Readout circuit structure, formed on a semi-conductor substrate of a first type, and intended to measure the charges received from a photodiode outside the substrate according to successive charge integration cycles, said structure comprising: • an injection diode formed in the substrate by a first forward biased PN junction comprising a first doped region of a second type of the substrate for receiving electric charges from said external photodiode, and configured for injecting into the substrate the charges received from the external photodiode, • a collecting diode formed in the substrate by a second PN junction comprising a second doped region of the second type buried in the substrate and able to collect in the substrate at least one portion of the charges injected by the injection diode and of accumulating these charges during an integration cycle, • a charge recovery structure (7, 15), configured for recovering the charges accumulated in said collecting diode, • means for initializing the charge recovery structure (7, 15) at the end of each integration cycle, by bringing back the electric potential of said charge recovery structure to an initial potential, • in which there is no transistor connected between the first doped region and the second doped region, the first region and the second region being separated by the substrate. • an injection diode formed in the substrate by a first forward biased PN junction comprising a first doped region of a second type of the substrate for receiving electric charges from said external photodiode, and configured for injecting into the substrate the charges received from the external photodiode, • a collecting diode formed in the substrate by a second PN junction comprising a second doped region of the second type buried in the substrate and able to collect in the substrate at least one portion of the charges injected by the injection diode and of accumulating these charges during an integration cycle, • a charge recovery structure (7, 15), configured for recovering the charges accumulated in said collecting diode, • means for initializing the charge recovery structure (7, 15) at the end of each integration cycle, by bringing back the electric potential of said charge recovery structure to an initial potential, • in which there is no transistor connected between the first doped region and the second doped region, the first region and the second region being separated by the substrate.
A gate driving circuit including two sets (10, 20) of cascaded shift registers and a plurality of pairs of Thin Film Transistors TFTs, wherein each of shift registers in a first set of cascaded shift registers is connected to a corresponding odd row gate line, and each of shift registers in a second set of cascaded shift registers is connected to a corresponding even row gate line; each of the plurality of pairs of TFTs comprises two TFTs (M1,M2), each of shift registers is further connected to two Thin Film Transistors TFTs (M1, M2) included in a corresponding pair of TFTs, wherein sources of the two TFTs (M1, M2) are both connected to an output terminal (OUTPUT) of a shift register, drains of the two TFTs (M1, M2) are both connected to a first level signal line, and gates of the two TFTs (M1, M2) are configured to receive a first control signal and a second control signal respectively, so that at least one of the two TFTs (M1, M2) is turned on when the shift register to which the two TFTs (M1, M2) are connected outputs a switching-off voltage; characterized in that a first clock signal and a second clock signal of the first set of cascaded shift registers are configured respectively to be the first control signal and the second control signal of the two TFTs (M1, M2) connected to a corresponding shift register of the second set of cascaded shift registers, and a first clock signal and a second clock signal of the second set of cascaded shift registers are configured respectively to be the first control signal and the second control signal of the two TFTs (M1, M2) connected to a corresponding shift register of the first set of cascaded shift registers; wherein the first level signal line is a low voltage signal line VSS, and the switching-off voltage is a low level voltage; wherein the first clock signal of the first set of cascaded shift registers, the first clock signal of the second set of cascaded shift registers, the second clock signal of the first set of cascaded shift registers, the second clock signal of the second set of cascaded shift registers are output sequentially in a pulse period; wherein in each set (10, 20) of cascaded shift registers, except for a first shift register and a last shift register, an output terminal of each of shift registers is connected to an input terminal (INPUT) of a subsequent adjacent shift register and a reset signal input terminal (RESETIN) of a previous adjacent shift register, an output terminal of the first shift register is connected to an input terminal (INPUT) of a second shift register, an output terminal of the last shift register is connected to a reset signal input terminal (RESETIN) of a previous adjacent shift register and a reset signal input terminal (RESETIN) of the last shift register; wherein an input terminal (INPUT) of the first shift register is configured to receive a frame start signal (STV1,STV2); and a low voltage signal input terminal (VSSIN) of each of the shift registers is configured to input a low voltage signal.
Apparatus for producing a comestible product, the apparatus comprising a die head defining flow path leading to a die aperture for extruding a main comestible material to form an extruded body, a plurality of nozzles within the flow path for introducing a comestible fluid into the extruded body to form a plurality of filled capillaries in the extruded body, and a control system comprising an electronic control unit, wherein the control system is configured so as to be able to independently connect each nozzle, or at least one of two or more groups of nozzles, with any one of at least two different sources of comestible fluid wherein the control system further comprises a valve arrangement operative under the control of the electronic control unit, in which each nozzle is independently fluidly connected with a valve for selectively connecting the nozzle with any one of at least two fluid sources, each valve being independently controlled by the electronic control unit.
A perborate salt for use in a method for treating a cancer in a subject, the method comprising administering an effective amount of the perborate salt to the subject.
An epoxy resin composition comprising at least components to given below, having a viscosity of 3,000 mPa·s or less at 25°C, and showing a viscosity of 4,500 mPa·s or less 3 hours after the start of measurement when subjected to continued measurement for 3 hours at a temperature of 25°C: epoxy resin having an aromatic ring in a molecule, aliphatic epoxy resin having a neopentyl structure in a molecule, acid anhydride, salt of either diazabicycloundecene or diazabicyclononene and an organic compound, core shell polymer particles. epoxy resin having an aromatic ring in a molecule, aliphatic epoxy resin having a neopentyl structure in a molecule, acid anhydride, salt of either diazabicycloundecene or diazabicyclononene and an organic compound, core shell polymer particles.
A flow regulating system for increasing a flow of cooling fluid (140, 202) supplied to a cooling system of a component of a gas turbine system, comprising: a pneumatic circuit embedded within a section of the component, the pneumatic circuit including a set of interconnected pneumatic passages; and a pressure-actuated switch fluidly coupled to the pneumatic circuit, wherein the pressure-actuated switch is activated in response to a formation of a breach in the section of the component and an exposure of at least one of the pneumatic passages of the pneumatic circuit embedded in the section of the component; wherein the pressure-actuated switch is actuated in response to a reduction in pressure in the pneumatic circuit due to the exposure of at least one of the pneumatic passages of the pneumatic circuit embedded in the section of the component, characterised in that the pressure-actuated switch includes a fluid inlet fluidly coupled to a pressurized source of cooling fluid (140, 202) and a fluid outlet fluidly coupled to the cooling circuit of the component, and wherein the activation of the pressure-actuated switch increases the flow of cooling fluid (140, 202) supplied to the cooling system of the component. a pneumatic circuit embedded within a section of the component, the pneumatic circuit including a set of interconnected pneumatic passages; and a pressure-actuated switch fluidly coupled to the pneumatic circuit, wherein the pressure-actuated switch is activated in response to a formation of a breach in the section of the component and an exposure of at least one of the pneumatic passages of the pneumatic circuit embedded in the section of the component; wherein the pressure-actuated switch is actuated in response to a reduction in pressure in the pneumatic circuit due to the exposure of at least one of the pneumatic passages of the pneumatic circuit embedded in the section of the component, characterised in that the pressure-actuated switch includes a fluid inlet fluidly coupled to a pressurized source of cooling fluid (140, 202) and a fluid outlet fluidly coupled to the cooling circuit of the component, and wherein the activation of the pressure-actuated switch increases the flow of cooling fluid (140, 202) supplied to the cooling system of the component.
A computer program product comprising software code adapted, when executed on a data processing apparatus, to perform a floor determination process, the computer program product comprising: communication code configured to acquire received signal strength indicator, RSSI, data for a wireless device from a plurality of access points (312, 322, 332, 342) on a plurality of floors (310, 320, 330, 340); and floor determination code configured to determine a floor that the wireless device is located by analyzing the RSSI data acquired by the communication code, characterised in that: the floor determination code is configured to determine which floor the wireless device is on by calculating an approximate probability of the wireless device being within each access point's cell based on the received RSSI data; wherein the floor determination code is configured to combine the approximate probability for access points on each floor; and wherein the floor determination code is configured to select the floor with the highest probability. communication code configured to acquire received signal strength indicator, RSSI, data for a wireless device from a plurality of access points (312, 322, 332, 342) on a plurality of floors (310, 320, 330, 340); and floor determination code configured to determine a floor that the wireless device is located by analyzing the RSSI data acquired by the communication code, characterised in that: the floor determination code is configured to determine which floor the wireless device is on by calculating an approximate probability of the wireless device being within each access point's cell based on the received RSSI data; wherein the floor determination code is configured to combine the approximate probability for access points on each floor; and wherein the floor determination code is configured to select the floor with the highest probability. the floor determination code is configured to determine which floor the wireless device is on by calculating an approximate probability of the wireless device being within each access point's cell based on the received RSSI data; wherein the floor determination code is configured to combine the approximate probability for access points on each floor; and wherein the floor determination code is configured to select the floor with the highest probability.