mhurhangee/ep-ind-claims huggingface dataset:
An outdoor unit, comprising: a casing; and a heat exchanger and a compressor accommodated in the casing, wherein the casing includes a bottom panel on a bottom of the casing, the bottom panel includes a first bottom plate portion formed below the heat exchanger, and a second bottom plate portion formed at a portion other than the first bottom plate portion, the compressor is mounted on the second bottom plate portion, characterized in that a lower end of the heat exchanger is arranged at a position above any point on an upper surface of the first bottom plate portion and below any point on an upper surface of the second bottom plate portion. a casing; and a heat exchanger and a compressor accommodated in the casing, wherein the casing includes a bottom panel on a bottom of the casing, the bottom panel includes a first bottom plate portion formed below the heat exchanger, and a second bottom plate portion formed at a portion other than the first bottom plate portion, the compressor is mounted on the second bottom plate portion, characterized in that a lower end of the heat exchanger is arranged at a position above any point on an upper surface of the first bottom plate portion and below any point on an upper surface of the second bottom plate portion. the bottom panel includes a first bottom plate portion formed below the heat exchanger, and a second bottom plate portion formed at a portion other than the first bottom plate portion, the compressor is mounted on the second bottom plate portion, characterized in that a lower end of the heat exchanger is arranged at a position above any point on an upper surface of the first bottom plate portion and below any point on an upper surface of the second bottom plate portion.
A conductive adhesive composition, which comprises a thermosetting resin, wherein the thermosetting resin is a bismaleimide resin of the following structure: wherein Q is a substituted or unsubstituted aliphatic, aromatic, heteroaromatic, siloxane part, or a combination, and X1 to X4 are each independently H or an alkyl group with 1 to 6 carbons; a filler having an average particle size of 5μm or smaller, the average particle size being a D50 value of a cumulative volume distribution curve as measured according to the description, that contains a metal element; and at least one catalyst or curing agent, wherein the reaction initiation temperature for the thermosetting resin and the at least one catalyst or curing agent is 180°C or higher, with the reaction initiation temperature being measured according to the description using a heat flux differential scanning calorimeter at a temperature elevation rate of 20°C/min from room temperature to 250°C. a thermosetting resin, wherein the thermosetting resin is a bismaleimide resin of the following structure: wherein Q is a substituted or unsubstituted aliphatic, aromatic, heteroaromatic, siloxane part, or a combination, and X1 to X4 are each independently H or an alkyl group with 1 to 6 carbons; a filler having an average particle size of 5μm or smaller, the average particle size being a D50 value of a cumulative volume distribution curve as measured according to the description, that contains a metal element; and at least one catalyst or curing agent, wherein the reaction initiation temperature for the thermosetting resin and the at least one catalyst or curing agent is 180°C or higher, with the reaction initiation temperature being measured according to the description using a heat flux differential scanning calorimeter at a temperature elevation rate of 20°C/min from room temperature to 250°C.
A fan having a temperature detecting function comprising: a fan frame having an air inlet and an air outlet; an impeller rotatably arranged between the air inlet and the air outlet; an extension member having one end adjacent to the fan frame; and a temperature sensor arranged at one of the air inlet and the air outlet via the extension member, wherein the temperature sensor is arranged in a position where an entire surface of the temperature sensor is fully exposed to the ambient air, and the fan further comprises a restricting portion arranged at the one of the air inlet or the air outlet, wherein the restricting portion is located between the extension member and the impeller and is adapted to prevent the extension member from making contact with the impeller, wherein the temperature sensor is fixed at the air inlet or the air outlet via the extension member and will not make contact with the restricting portion. a fan frame having an air inlet and an air outlet; an impeller rotatably arranged between the air inlet and the air outlet; an extension member having one end adjacent to the fan frame; and a temperature sensor arranged at one of the air inlet and the air outlet via the extension member, wherein the temperature sensor is arranged in a position where an entire surface of the temperature sensor is fully exposed to the ambient air, and the fan further comprises a restricting portion arranged at the one of the air inlet or the air outlet, wherein the restricting portion is located between the extension member and the impeller and is adapted to prevent the extension member from making contact with the impeller, wherein the temperature sensor is fixed at the air inlet or the air outlet via the extension member and will not make contact with the restricting portion.
An ice maker comprising: a frame provided on a rear side of a refrigerator door; an ice tray rotatably installed in the frame; a tray cover provided to the frame and selectively opening/closing the ice tray as the ice tray rotates; and a rotation cooperating portion rotatably connected to the tray cover and selectively contacting an upper surface of the ice tray; and an elastic member for giving elastic force to the rotation cooperating portion such that the rotation cooperating portion rotates in a direction such that it contacts the upper surface of the ice tray. a frame provided on a rear side of a refrigerator door; an ice tray rotatably installed in the frame; a tray cover provided to the frame and selectively opening/closing the ice tray as the ice tray rotates; and a rotation cooperating portion rotatably connected to the tray cover and selectively contacting an upper surface of the ice tray; and an elastic member for giving elastic force to the rotation cooperating portion such that the rotation cooperating portion rotates in a direction such that it contacts the upper surface of the ice tray.
A compound of formula wherein anti-HER2 Ab is an anti-HER2 antibody or antibody fragment, n is 0-3, m represents an average DAR of from 1 to 4, R 1 is selected from y is 1-16, and R 2 is selected from for use in the treatment of human solid tumours expressing HER2, wherein the human solid tumour expressing HER2 is bladder cancer. anti-HER2 Ab is an anti-HER2 antibody or antibody fragment, n is 0-3, m represents an average DAR of from 1 to 4, R 1 is selected from y is 1-16, and R 2 is selected from for use in the treatment of human solid tumours expressing HER2, wherein the human solid tumour expressing HER2 is bladder cancer.
A human shoe sole or insole having a foot supporting upper surface including a first region for supporting the first, second, third, fourth and optionally fifth metatarsal heads of the foot, and a second region surrounding the first region for supporting the remainder of the foot, at least in part, wherein the first region provides less resistance to downward motion than the second region, characterized in that the first region includes a hollow or depressed area relative to the remainder of the first region having a medial border portion and a lateral border portion, wherein the depression has its lowest point skewed to the medial side of center, whereby to promote eversion of the first metatarsal head as the wearer moves from midstance through propulsive phase.
A method for detecting a non-marked parking space for a vehicle on a roadway, comprising: - receiving an infrastructure information describing an infrastructure feature defining a no-parking safety zone, the infrastructure information comprising at least a location information describing a location of the infrastructure feature and a safety distance information, - estimating a distance between the location of the infrastructure feature and the vehicle based on the received location information, and - informing a user of the vehicle about the estimated distance and the relationship between the estimated distance and the safety distance. - receiving an infrastructure information describing an infrastructure feature defining a no-parking safety zone, the infrastructure information comprising at least a location information describing a location of the infrastructure feature and a safety distance information, - estimating a distance between the location of the infrastructure feature and the vehicle based on the received location information, and - informing a user of the vehicle about the estimated distance and the relationship between the estimated distance and the safety distance.
A transition device for a threshing system for an agricultural harvester, the transition device comprising: a body having an inlet end for receiving crop material from a feeder source, and an outlet end opposite the inlet end for distributing crop material into a threshing space of the threshing system; and a plurality of vanes positioned on an interior facing surface of the body for guiding the crop material through the transition device, each vane having a first end positioned either on or adjacent the inlet end of the body and a second end positioned either on or adjacent the outlet end of the body, characterized in that an arc length between the first ends of two adjacent vanes of the plurality of vanes is less than or equal to an arc length between the second ends of the two adjacent vanes of the plurality of vanes, such that the crop material can expand between the two adjacent vanes upon travelling along a trajectory from the inlet end to the outlet end of the transition device. a body having an inlet end for receiving crop material from a feeder source, and an outlet end opposite the inlet end for distributing crop material into a threshing space of the threshing system; and a plurality of vanes positioned on an interior facing surface of the body for guiding the crop material through the transition device, each vane having a first end positioned either on or adjacent the inlet end of the body and a second end positioned either on or adjacent the outlet end of the body, characterized in that an arc length between the first ends of two adjacent vanes of the plurality of vanes is less than or equal to an arc length between the second ends of the two adjacent vanes of the plurality of vanes, such that the crop material can expand between the two adjacent vanes upon travelling along a trajectory from the inlet end to the outlet end of the transition device.
A wearable device for quantitatively detecting a biomarker in a sweat sample obtained from the skin of a subject, the device (100, 200, 300, 400) comprising: a microfluidic network, the microfluidic network comprising: a reservoir (102, 202, 302, 402) filled with a carrier fluid containing a predetermined amount of a marker; a sample collection chamber (104, 204, 304, 404) disposed downstream from the reservoir (102, 202, 302, 402) and adapted to contact the skin of the subject and collect a sweat sample; a first sensor (106, 206, 306, 406) disposed downstream from the sample collection chamber (104, 204, 304, 404) and adapted to detect the marker; and a second sensor (108, 208, 308, 408) disposed downstream from the first sensor (106, 206, 306) and adapted to detect the biomarker, characterized in that the first sensor (106,206,306,406) is adapted to measure concentration of the marker in the carrier fluid. a reservoir (102, 202, 302, 402) filled with a carrier fluid containing a predetermined amount of a marker; a sample collection chamber (104, 204, 304, 404) disposed downstream from the reservoir (102, 202, 302, 402) and adapted to contact the skin of the subject and collect a sweat sample; a first sensor (106, 206, 306, 406) disposed downstream from the sample collection chamber (104, 204, 304, 404) and adapted to detect the marker; and a second sensor (108, 208, 308, 408) disposed downstream from the first sensor (106, 206, 306) and adapted to detect the biomarker, characterized in that the first sensor (106,206,306,406) is adapted to measure concentration of the marker in the carrier fluid.
Porphyrin derivatives of the general formula 1, Wherein, R 1, R 3, R 5 = OH; R 2, R 4 = H; M = 2H Wherein, R 1, R 3, R 5 = OH; R 2, R 4 = H; M = Zn, Co, Cu, Fe, Au Wherein, R 1, R 2, R 4, R 5 = H; R 3 = (OCH 2 CH 2) n OH (where n = 3-7); M = 2H Wherein, R 1, R 2, R 4, R 5 = H; R 3 = (OCH 2 CH 2) n OH (where n = 3-7); M = Zn, Co, Cu, Fe, Au. Wherein, R 1, R 3, R 5 = OH; R 2, R 4 = H; M = 2H Wherein, R 1, R 3, R 5 = OH; R 2, R 4 = H; M = Zn, Co, Cu, Fe, Au Wherein, R 1, R 2, R 4, R 5 = H; R 3 = (OCH 2 CH 2) n OH (where n = 3-7); M = 2H Wherein, R 1, R 2, R 4, R 5 = H; R 3 = (OCH 2 CH 2) n OH (where n = 3-7); M = Zn, Co, Cu, Fe, Au.
A method for locating an endpoint, wherein the endpoint is a utility meter endpoint, the method comprising: in response to detecting a transmission from the endpoint, determining whether the endpoint is an endpoint of interest based on whether an identifier of the endpoint is on a list of expected endpoints; if the endpoint is the endpoint of interest: sending a first command to the endpoint to increase a transmission rate of the endpoint; determining estimated locations of the endpoint using signal strengths of subsequent transmissions from the endpoint until a final estimated location is determined; and in response to determining the final estimated location of the endpoint, sending a second command to the endpoint to decrease the transmission rate of the endpoint. in response to detecting a transmission from the endpoint, determining whether the endpoint is an endpoint of interest based on whether an identifier of the endpoint is on a list of expected endpoints; if the endpoint is the endpoint of interest: sending a first command to the endpoint to increase a transmission rate of the endpoint; determining estimated locations of the endpoint using signal strengths of subsequent transmissions from the endpoint until a final estimated location is determined; and in response to determining the final estimated location of the endpoint, sending a second command to the endpoint to decrease the transmission rate of the endpoint. sending a first command to the endpoint to increase a transmission rate of the endpoint; determining estimated locations of the endpoint using signal strengths of subsequent transmissions from the endpoint until a final estimated location is determined; and in response to determining the final estimated location of the endpoint, sending a second command to the endpoint to decrease the transmission rate of the endpoint.
A porous ceramic honeycomb article comprising a honeycomb body formed from cordierite ceramic and comprising a plurality of cell channels formed by porous channel walls, wherein: the honeycomb body has a porosity P% ≥ 55%; the honeycomb body has a cell channel density CD ≥ 150 cpsi; the porous channel walls of the honeycomb body have a wall thickness T, wherein (11+(300-CD)*0.03) ≥ T ≥(8+(300-CD)*0.02), wherein the wall thickness T is in units of mils (where 1 mil = 25.4 μm); the porous channel walls of the honeycomb body have a median pore size ≤ 20 μm; the porous channel walls of the honeycomb body have a pore size distribution with a d-factor of ≤ 0.35, wherein the d-factor = (d 50 -d 10)/d 50; the honeycomb body has a specific pore volume per volume of the honeycomb body of VP ≤ 0.22, wherein VP = (1-OFA)*P%, wherein OFA is an open frontal area of the honeycomb body; and the porous ceramic honeycomb article has a coated pressure drop increase of ≤ 8 kPa at a flow rate of 0.75 cubic meters per minute (26.5 cubic feet per minute) when coated with 100 g/L of a washcoat catalyst and loaded with 5 g/L of soot. the honeycomb body has a porosity P% ≥ 55%; the honeycomb body has a cell channel density CD ≥ 150 cpsi; the porous channel walls of the honeycomb body have a wall thickness T, wherein (11+(300-CD)*0.03) ≥ T ≥(8+(300-CD)*0.02), wherein the wall thickness T is in units of mils (where 1 mil = 25.4 μm); the porous channel walls of the honeycomb body have a median pore size ≤ 20 μm; the porous channel walls of the honeycomb body have a pore size distribution with a d-factor of ≤ 0.35, wherein the d-factor = (d 50 -d 10)/d 50; the honeycomb body has a specific pore volume per volume of the honeycomb body of VP ≤ 0.22, wherein VP = (1-OFA)*P%, wherein OFA is an open frontal area of the honeycomb body; and the porous ceramic honeycomb article has a coated pressure drop increase of ≤ 8 kPa at a flow rate of 0.75 cubic meters per minute (26.5 cubic feet per minute) when coated with 100 g/L of a washcoat catalyst and loaded with 5 g/L of soot.
A method for preparing an implant having a porous metal component, comprising: a. preparing a loose powder mixture comprising a biocompatible metal powder and a spacing agent; b. compressing the powder mixture onto a metal base; wherein the metal base is a solid metal layer of material taken from a solid metal block; c. removing the spacing agent to form a compact having a porous metal structure pressed on the metal base; d. sintering the compact to form a subassembly by sintering adjacent powder particles of the porous metal structure to one another while concurrently sintering the porous structure to the metal base to form a subassembly; e. aligning the subassembly with a metal substrate component; and f. forming a metallurgical bond by diffusion bonding the metal base of the subassembly to the metal substrate component to form an implant. a. preparing a loose powder mixture comprising a biocompatible metal powder and a spacing agent; b. compressing the powder mixture onto a metal base; wherein the metal base is a solid metal layer of material taken from a solid metal block; c. removing the spacing agent to form a compact having a porous metal structure pressed on the metal base; d. sintering the compact to form a subassembly by sintering adjacent powder particles of the porous metal structure to one another while concurrently sintering the porous structure to the metal base to form a subassembly; e. aligning the subassembly with a metal substrate component; and f. forming a metallurgical bond by diffusion bonding the metal base of the subassembly to the metal substrate component to form an implant.
A method of providing additive to a refrigerant circuit containing refrigerant, the method comprising: connecting a supply device to the refrigerant circuit at a portion of the refrigerant circuit where a circuit pressure is less than a device pressure, the supply device having an outer container with an inner flexible bag therein and a gas propellant sealed between an inner wall of the outer container and the inner bag, the inner bag containing the additive without a refrigerant, wherein the outer container is a rigid container and wherein the device pressure is generated by pressure applied to the inner bag from the gas propellant contained between the outer container and the inner bag; and actuating a valve of the supply device in fluid communication with the inner bag to allow the device pressure to translate into pressure in the inner bag and cause flow of the additive into the refrigerant circuit, wherein the additive is not pre-mixed with refrigerant. connecting a supply device to the refrigerant circuit at a portion of the refrigerant circuit where a circuit pressure is less than a device pressure, the supply device having an outer container with an inner flexible bag therein and a gas propellant sealed between an inner wall of the outer container and the inner bag, the inner bag containing the additive without a refrigerant, wherein the outer container is a rigid container and wherein the device pressure is generated by pressure applied to the inner bag from the gas propellant contained between the outer container and the inner bag; and actuating a valve of the supply device in fluid communication with the inner bag to allow the device pressure to translate into pressure in the inner bag and cause flow of the additive into the refrigerant circuit, wherein the additive is not pre-mixed with refrigerant.
A rechargeable battery comprising a plurality of electrode assemblies, each of which having a first and a second electrode (11,12), a terminal and a current collecting member that connects the first electrodes to the terminal, wherein the current collecting member has a terminal connection portion that contacts the terminal and a plurality of electrode connection portions (41 b), each of which contacting one of the first electrodes, and wherein the current collecting member comprises at least one fuse portion connecting the terminal connection portion and the electrode connection portions, wherein each of electrode connection portions is respectively connected with the fuse portion, characterized in that the fuse portion comprises a plurality of longitudinal fuse elements that extend parallel to the electrode connection portions, wherein each of the longitudinal fuse elements contacts one of the electrode connection portions.
A computer system for analysing a radiation treatment plan using a dose of flash radiation to irradiate a volume within a patient, the computer system comprising a processor which is configured to obtain oxygen pressure information for the volume to be irradiated; obtain parameters from a patient treatment plan; input the obtained oxygen pressure information and parameters in to a model which predicts complex damage within the irradiated volume caused by the dose of flash radiation; output a prediction, using the model, of the complex damage caused within the volume by the dose of flash radiation; and quantify, using the prediction, a level of damage to healthy tissue within the irradiated volume; wherein complex damage is damage which is more complex than a double strand break within DNA in patient tissue and wherein the model is a function of energy of particles within the radiation and oxygen pressure which varies with time. a processor which is configured to obtain oxygen pressure information for the volume to be irradiated; obtain parameters from a patient treatment plan; input the obtained oxygen pressure information and parameters in to a model which predicts complex damage within the irradiated volume caused by the dose of flash radiation; output a prediction, using the model, of the complex damage caused within the volume by the dose of flash radiation; and quantify, using the prediction, a level of damage to healthy tissue within the irradiated volume; wherein complex damage is damage which is more complex than a double strand break within DNA in patient tissue and wherein the model is a function of energy of particles within the radiation and oxygen pressure which varies with time.