mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a process for cooking food having a cooking parameter dependent on an initial temperature of the food to be cooked, the method comprising the steps of: - detecting an initial temperature of the food; - evaluating weighting factors of more than one temperature ranges according to the initial temperature, wherein each of the more than one temperature ranges is associated with a preset cooking parameter, and wherein the more than one temperature ranges and the preset cooking parameters are predetermined and wherein the weighting factors relate to the likelihood that the actual temperature of the food is in a given temperature range based on the detected initial temperature; and - controlling the cooking process based on the evaluated weighting factors and the preset cooking parameters. - detecting an initial temperature of the food; - evaluating weighting factors of more than one temperature ranges according to the initial temperature, wherein each of the more than one temperature ranges is associated with a preset cooking parameter, and wherein the more than one temperature ranges and the preset cooking parameters are predetermined and wherein the weighting factors relate to the likelihood that the actual temperature of the food is in a given temperature range based on the detected initial temperature; and - controlling the cooking process based on the evaluated weighting factors and the preset cooking parameters.
A roller blind arrangement for a motor vehicle, the roller blind arrangement comprising a roller blind web and a winding shaft onto which the roller blind web can be wound or from which the roller blind web can be unwound and which comprises a flexible surrounding-tube arrangement (30, 30') penetrated by a vehicle-attached bearing strut and comprising a corrugated tube (32, 32') as a surrounding-tube element, corrugated-tube ribs being formed on the corrugated tube (32, 32') and being separated from each other by troughs, characterized in that the corrugated tube (32, 32') has a coupling overmold (34A, 34B) at each of its two ends, each coupling overmold (34A, 34B) being connected to a respective bearing bush (36A, 36B) and having an outer diameter which corresponds to the maximum outer diameter of the corrugated tube (32, 32').
A combination therapy comprising a CCR1 chemokine receptor antagonist, and a PD-1 inhibitor or a PD-L1 inhibitor for use in a method of treating triple negative breast cancer in a subject, said method comprising administering to the subject in need thereof a therapeutically effective amount of the CCR1 chemokine receptor antagonist, and a therapeutically effective amount of the PD-1 inhibitor or the PD-L1 inhibitor, wherein the CCR1 chemokine receptor antagonist has the formula (IIIb1a): wherein each A is N or CH and at least one A is N; R 1 is halogen; R 3 is selected from the group consisting of C 1-8 alkyl, C 3-8 cycloalkyl and C 2-8 alkenyl; and R 8 is C 1-8 alkyl; or a pharmaceutically acceptable salt thereof.
A dialysis system comprising: a dialysis machine; a communication module configured to communicate using a short-range wireless technology protocol; data storage configured to store data corresponding to identities of one or more short-range wireless devices; and a processor configured to: identify presence of a short-range wireless device; cause the dialysis machine to carry out an action when the presence of the short-range wireless device is identified; characterised in that the processor is further configured to: determine that the presence of the short-range wireless device has ceased before an expected termination of the action; and in response to determining that the presence of the short-range wireless device has ceased before the expected termination of the action, carry out an emergency procedure. a dialysis machine; a communication module configured to communicate using a short-range wireless technology protocol; data storage configured to store data corresponding to identities of one or more short-range wireless devices; and a processor configured to: identify presence of a short-range wireless device; cause the dialysis machine to carry out an action when the presence of the short-range wireless device is identified; characterised in that the processor is further configured to: determine that the presence of the short-range wireless device has ceased before an expected termination of the action; and in response to determining that the presence of the short-range wireless device has ceased before the expected termination of the action, carry out an emergency procedure. identify presence of a short-range wireless device; cause the dialysis machine to carry out an action when the presence of the short-range wireless device is identified; characterised in that the processor is further configured to: determine that the presence of the short-range wireless device has ceased before an expected termination of the action; and in response to determining that the presence of the short-range wireless device has ceased before the expected termination of the action, carry out an emergency procedure. determine that the presence of the short-range wireless device has ceased before an expected termination of the action; and in response to determining that the presence of the short-range wireless device has ceased before the expected termination of the action, carry out an emergency procedure.
A photovoltaic cell, comprising: a substrate; a first passivation layer and a first anti-reflection layer that are sequentially disposed on a front surface of the substrate in a direction away from the substrate; and a second passivation layer, at least one silicon oxynitride layer, and at least one silicon nitride layer that are sequentially disposed on a rear surface of the substrate in a direction away from the substrate; wherein the second passivation layer comprises at least one aluminum oxide layer, wherein a ratio of a number of oxygen atoms to a number of aluminum atoms in the at least one aluminum oxide layer is greater than 0.8 and less than 1.6, a refractive index of the at least one aluminum oxide layer is in a range of 1.4 to 1.6, and a thickness of the at least one aluminum oxide layer is in a range of 4 nm to 20 nm; wherein a number of silicon atoms is greater than a number of oxygen atoms in the at least one silicon oxynitride layer and the number of oxygen atoms is greater than a number of nitrogen atoms in the at least one silicon oxynitride layer, a refractive index of the at least one silicon oxynitride layer is in a range of 1.5 to 1.8, and a thickness of the at least one silicon oxynitride layer is in a range of 1 nm to 30 nm; and wherein a ratio of a number of silicon atoms to a number of nitrogen atoms in the at least one silicon nitride layer is greater than 1 and less than 4, a refractive index of the at least one silicon nitride layer is in a range of 1.9 to 2.5, and a thickness of the at least one silicon nitride layer is in a range of 50 nm to 100 nm. a substrate; a first passivation layer and a first anti-reflection layer that are sequentially disposed on a front surface of the substrate in a direction away from the substrate; and a second passivation layer, at least one silicon oxynitride layer, and at least one silicon nitride layer that are sequentially disposed on a rear surface of the substrate in a direction away from the substrate; wherein the second passivation layer comprises at least one aluminum oxide layer, wherein a ratio of a number of oxygen atoms to a number of aluminum atoms in the at least one aluminum oxide layer is greater than 0.8 and less than 1.6, a refractive index of the at least one aluminum oxide layer is in a range of 1.4 to 1.6, and a thickness of the at least one aluminum oxide layer is in a range of 4 nm to 20 nm; wherein a number of silicon atoms is greater than a number of oxygen atoms in the at least one silicon oxynitride layer and the number of oxygen atoms is greater than a number of nitrogen atoms in the at least one silicon oxynitride layer, a refractive index of the at least one silicon oxynitride layer is in a range of 1.5 to 1.8, and a thickness of the at least one silicon oxynitride layer is in a range of 1 nm to 30 nm; and wherein a ratio of a number of silicon atoms to a number of nitrogen atoms in the at least one silicon nitride layer is greater than 1 and less than 4, a refractive index of the at least one silicon nitride layer is in a range of 1.9 to 2.5, and a thickness of the at least one silicon nitride layer is in a range of 50 nm to 100 nm.
A traffic signal recognition method comprising: capturing an image of a traveling direction of a vehicle by using an imaging unit mounted on the vehicle, acquiring positions (P1, P2, P3) of stop lines, each corresponding to a traffic signal (TS1, TS2, TS3) located in the traveling direction of the vehicle, estimating whether or not the vehicle can be decelerated at a predetermined deceleration and can stop before the stop lines based on the positions (P1, P2, P3) of the stop lines, selecting, as target traffic signal (TS1, TS2), the traffic signals (TS1, TS2) corresponding to the stop lines before which it is estimated that the vehicle cannot stop, estimating a target position of the target traffic signal (TS1, TS2) in the image, setting a part of the image, which includes the target position of the target traffic signal (TS1, TS2) in the image, as a detection area, without setting a detection area corresponding to traffic signals different from the target traffic signal (TS1, TS2) in the image, and determining a display state of the target traffic signal (TS1, TS2) by executing image processing on the set detection area. capturing an image of a traveling direction of a vehicle by using an imaging unit mounted on the vehicle, acquiring positions (P1, P2, P3) of stop lines, each corresponding to a traffic signal (TS1, TS2, TS3) located in the traveling direction of the vehicle, estimating whether or not the vehicle can be decelerated at a predetermined deceleration and can stop before the stop lines based on the positions (P1, P2, P3) of the stop lines, selecting, as target traffic signal (TS1, TS2), the traffic signals (TS1, TS2) corresponding to the stop lines before which it is estimated that the vehicle cannot stop, estimating a target position of the target traffic signal (TS1, TS2) in the image, setting a part of the image, which includes the target position of the target traffic signal (TS1, TS2) in the image, as a detection area, without setting a detection area corresponding to traffic signals different from the target traffic signal (TS1, TS2) in the image, and determining a display state of the target traffic signal (TS1, TS2) by executing image processing on the set detection area.
A curtain coating method comprising: ejecting at least one layer of a coating liquid from a slit; and making the ejected coating liquid fall freely from a curtain nozzle lip by using a curtain edge guide which guides the coating liquid in the form of a curtain liquid film, so as to apply the coating liquid onto a continuously running web, wherein the coating liquid is applied by moving the curtain edge guide toward the depth direction, which is a direction perpendicular to the direction in which the coating liquid falls down, when the curtain liquid film is seen from the front, wherein the curtain edge guide is moved by a moving unit, and as the moving unit a moving stage is used. ejecting at least one layer of a coating liquid from a slit; and making the ejected coating liquid fall freely from a curtain nozzle lip by using a curtain edge guide which guides the coating liquid in the form of a curtain liquid film, so as to apply the coating liquid onto a continuously running web, wherein the coating liquid is applied by moving the curtain edge guide toward the depth direction, which is a direction perpendicular to the direction in which the coating liquid falls down, when the curtain liquid film is seen from the front, wherein the curtain edge guide is moved by a moving unit, and as the moving unit a moving stage is used.
A first device configured to dynamically migrate a personal cloud service in a personal cloud, the first device comprising control circuitry and communications circuitry, the control circuitry operative to: detect that the operation of the personal cloud can improve by migrating an active service provided by the first device to a second device, wherein the operation of the personal cloud can improve by evaluating the expected availability of the first and second devices, and wherein the control circuitry is operative to detect by: monitoring historical availability of each of the first and second devices, defining the probability that each of the first and second devices will be available at different moments in time, and determining that the first device is likely to be less available than the second device based on the defined probability at a particular moment in time; the control circuitry further operative to: determine that the second device has sufficient resources to implement the active service; and direct the first device to cease providing the active service while directing the second device to start providing the active service based on said defined probability and on said determine that the second device has sufficient resources. detect that the operation of the personal cloud can improve by migrating an active service provided by the first device to a second device, wherein the operation of the personal cloud can improve by evaluating the expected availability of the first and second devices, and wherein the control circuitry is operative to detect by: monitoring historical availability of each of the first and second devices, defining the probability that each of the first and second devices will be available at different moments in time, and determining that the first device is likely to be less available than the second device based on the defined monitoring historical availability of each of the first and second devices, defining the probability that each of the first and second devices will be available at different moments in time, and determining that the first device is likely to be less available than the second device based on the defined probability at a particular moment in time; the control circuitry further operative to: determine that the second device has sufficient resources to implement the active service; and direct the first device to cease providing the active service while directing the second device to start providing the active service based on said defined probability and on said determine that the second device has sufficient resources.
A process for producing silicon metal-containing agglomerates, wherein a mixture of finely divided silicon metal-containing particles having a particle size parameter d 50 of not more than 250 μm and in the dry state a silicon metal content of at least 10% by mass, binder containing 90% to 98% by mass of silicon dioxide and having a specific surface area of 15 to 35 m 2 /g and water, wherein the mass ratio between finely divided silicon metal-containing particles and binder in the mixture is from 80/20 to 99/1, is agglomerated, wherein the resulting moist agglomerates have a water content of 5% to 15% by mass and the agglomerates are subsequently dried. binder containing 90% to 98% by mass of silicon dioxide and having a specific surface area of 15 to 35 m 2 /g and water, wherein the mass ratio between finely divided silicon metal-containing particles and binder in the mixture is from 80/20 to 99/1, is agglomerated, wherein the resulting moist agglomerates have a water content of 5% to 15% by mass and the agglomerates are subsequently dried.
An isolated cell comprising a genetically engineered disruption in all copies of a human leukocyte antigen, HLA, class II-related gene, wherein the cell is a human cell, wherein: a) the HLA class II-related gene is selected from the group consisting of regulatory factor X-associated ankyrin-containing protein of SEQ ID NO: 24-27, regulatory factor 5 of SEQ ID NO: 28-31, regulatory factor X associated protein of SEQ ID NO: 32-33, class II transactivator of SEQ ID NO: 34-35; and b) the cell further comprises one or more polynucleotides, and wherein the one or more polynucleotides is capable of encoding a single chain fusion HLA class I protein, wherein the single chain fusion HLA class I protein comprises at least a portion of B2M SEQ ID NO:2 covalently linked to at least a portion of an HLA class I α chain selected from the group consisting of HLA-E SEQ ID NO: 10, HLA-F SEQ ID NO: 12 and HLA-G SEQ ID NO: 14; and c) the cell further comprises a genetically engineered disruption in the β2-microglobulin, B2M, gene of SEQ ID NO: 1; and d) wherein the single chain fusion HLA class I protein is capable of normal HLA class I function with respect to forming proper secondary structure of the heterodimer on the cell surface, presenting peptides in the peptide binding cleft and engaging the inhibitory receptors on the surface of NK cells; and e) wherein human embryonic stem cells are excluded. a) the HLA class II-related gene is selected from the group consisting of regulatory factor X-associated ankyrin-containing protein of SEQ ID NO: 24-27, regulatory factor 5 of SEQ ID NO: 28-31, regulatory factor X associated protein of SEQ ID NO: 32-33, class II transactivator of SEQ ID NO: 34-35; and b) the cell further comprises one or more polynucleotides, and wherein the one or more polynucleotides is capable of encoding a single chain fusion HLA class I protein, wherein the single chain fusion HLA class I protein comprises at least a portion of B2M SEQ ID NO:2 covalently linked to at least a portion of an HLA class I α chain selected from the group consisting of HLA-E SEQ ID NO: 10, HLA-F SEQ ID NO: 12 and HLA-G SEQ ID NO: 14; and c) the cell further comprises a genetically engineered disruption in the β2-microglobulin, B2M, gene of SEQ ID NO: 1; and d) wherein the single chain fusion HLA class I protein is capable of normal HLA class I function with respect to forming proper secondary structure of the heterodimer on the cell surface, presenting peptides in the peptide binding cleft and engaging the inhibitory receptors on the surface of NK cells; and e) wherein human embryonic stem cells are excluded.
A wind turbine, comprising: a tower; a nacelle mounted atop the tower; a rotor rotatably coupled to the nacelle, the rotor comprising at least one rotor blade; a yaw drive for adjusting a yaw angle of the nacelle; a native yaw drive control system including one or more native sensors for detecting one or more parameters indicative of a wind condition and a native controller communicatively coupled to the native yaw drive and the one or more native sensors; and a system configured for controlling the yaw drive of the wind turbine when the native yaw drive control system is non-operational, the system comprising: an external sensor configured to detect a parameter indicative of a wind condition experienced by the wind turbine; and, an external controller communicatively coupled to the external sensor, the external controller being configured to control the yaw drive based on measurement signals received from the external sensor, wherein the external sensor and the external controller are electrically isolated from the native yaw drive control system. a tower; a nacelle mounted atop the tower; a rotor rotatably coupled to the nacelle, the rotor comprising at least one rotor blade; a yaw drive for adjusting a yaw angle of the nacelle; a native yaw drive control system including one or more native sensors for detecting one or more parameters indicative of a wind condition and a native controller communicatively coupled to the native yaw drive and the one or more native sensors; and a system configured for controlling the yaw drive of the wind turbine when the native yaw drive control system is non-operational, the system comprising: an external sensor configured to detect a parameter indicative of a wind condition experienced by the wind turbine; and, an external controller communicatively coupled to the external sensor, the external controller being configured to control the yaw drive based on measurement signals received from the external sensor, an external sensor configured to detect a parameter indicative of a wind condition experienced by the wind turbine; and, an external controller communicatively coupled to the external sensor, the external controller being configured to control the yaw drive based on measurement signals received from the external sensor, wherein the external sensor and the external controller are electrically isolated from the native yaw drive control system.
A household appliance comprising - an opening arranged on a body, - a housing placed into the opening and extending from the opening towards the inner part of the body, - a cylindrical knob placed into the housing and moved by being rotated and pushed, and - at least one light source that emits light into the housing, - a transparent illumination aperture extending along the line where the front and lateral surfaces of the knob intersect and - a carrier whereon the light source is placed so as to illuminate the illumination aperture when the knob is placed into the housing. - an opening arranged on a body, - a housing placed into the opening and extending from the opening towards the inner part of the body, - a cylindrical knob placed into the housing and moved by being rotated and pushed, and - at least one light source that emits light into the housing, - a transparent illumination aperture extending along the line where the front and lateral surfaces of the knob intersect and - a carrier whereon the light source is placed so as to illuminate the illumination aperture when the knob is placed into the housing.