mhurhangee/ep-ind-claims huggingface dataset:
A scroll fluid machine comprising: a first scroll member having a first end plate on which a spiral first wall is provided; a second scroll member having a second end plate on which a spiral second wall is provided, the second end plate being disposed to face the first end plate and the second wall meshing with the first wall such that the second scroll member performs a revolution orbiting movement relative to the first scroll member; and an inclined portion in which an inter-facing surface distance between the first end plate and the second end plate facing each other continuously decreases from outer peripheral sides of the spiral first wall and the spiral second wall toward inner peripheral sides thereof, wherein the inclined portion is provided over a range of 180° or more around a center of the spiral, characterised in that an inclination (φ) of the inclined portion is set to be larger on the outer peripheral side than on the inner peripheral side with respect to a circumferential direction in which the spiral wall extends. a first scroll member having a first end plate on which a spiral first wall is provided; a second scroll member having a second end plate on which a spiral second wall is provided, the second end plate being disposed to face the first end plate and the second wall meshing with the first wall such that the second scroll member performs a revolution orbiting movement relative to the first scroll member; and an inclined portion in which an inter-facing surface distance between the first end plate and the second end plate facing each other continuously decreases from outer peripheral sides of the spiral first wall and the spiral second wall toward inner peripheral sides thereof, wherein the inclined portion is provided over a range of 180° or more around a center of the spiral, characterised in that an inclination (φ) of the inclined portion is set to be larger on the outer peripheral side than on the inner peripheral side with respect to a circumferential direction in which the spiral wall extends.
Use of silane-modified polybutadienes in rubber mixtures, wherein the polybutadiene comprises the 1,3-butadiene-derived monomer units and and wherein the proportion of A in the entirety of the 1,3-butadiene-derived monomer units present in the polybutadiene is from 10 to 60 mol per cent, and wherein the sum of the proportions of B and C in the entirety of the 1,3-butadiene-derived monomer units present in the polybutadiene is from 40 to 90 mol per cent, wherein the silane-modified polybutadienes are obtainable by reacting hydroxyl-terminated polybutadienes produced by free-radical polymerization with one or more organosilane compounds. and and wherein the proportion of A in the entirety of the 1,3-butadiene-derived monomer units present in the polybutadiene is from 10 to 60 mol per cent, and wherein the sum of the proportions of B and C in the entirety of the 1,3-butadiene-derived monomer units present in the polybutadiene is from 40 to 90 mol per cent, wherein the silane-modified polybutadienes are obtainable by reacting hydroxyl-terminated polybutadienes produced by free-radical polymerization with one or more organosilane compounds.
A lighting device for a motor vehicle headlight, comprising • a number of light sources, • at least one attachment optical unit, having a light entrance surface and a light exit surface, • wherein the at least one attachment optical unit comprises a plurality of light-guiding bodies, and wherein each light-guiding body has a light entrance surface, into which in each case at least one light source feeds light, • and wherein the light-guiding bodies lead into the common light exit surface, and wherein at least one, preferably exactly one, position holder is provided, by means of which the light entrance surfaces of the light-guiding bodies of the at least one attachment optical unit are held in position in relation to the light sources, and wherein the position holder for each light-guiding body has a receptacle, in which the associated light-guiding body is received and positioned with an accurate fit, characterised in that the light guiding bodies have a cross-section tapering towards the light entrance surfaces thereof, and that the receptacles have a cross section tapering toward the light sources, wherein this cross section is narrowed to a greater extent than that of the light-guiding bodies. • a number of light sources, • at least one attachment optical unit, having a light entrance surface and a light exit surface, • wherein the at least one attachment optical unit comprises a plurality of light-guiding bodies, and wherein each light-guiding body has a light entrance surface, into which in each case at least one light source feeds light, • and wherein the light-guiding bodies lead into the common light exit surface,
A coating composition comprising a hydroxyl-containing resin having a cure site, a curing agent which reacts with the cure site to cure the resin, and a curing catalyst to catalyze the curing reaction, said curing agent is composed of a hydrolysable group containing fluoroorganosilicate alone.
A method of wireless communication, the method being performed by a base station (450a, 450b) and comprising: determining, by the base station (450a, 450b), one or more silent subcarriers among a plurality of subcarriers in a physical resource block, PRB, associated with a communication system; and transmitting, to a user equipment, a signaling instruction via downlink control information, DCI, signaling that instructs whether to mute the one or more silent subcarriers, wherein the signaling instruction instructs whether to mute the one or more silent subcarriers when a muting-subcarrier function is enabled via signaling and in response to the one or more silent subcarriers being in the data channel, wherein the communication system and another communication system comprise a first PRB located on one side of a direct current, DC, subcarrier that is aligned, and wherein the communication system and another communication system comprise a set of PRBs located on another side of the DC subcarrier that are misaligned. determining, by the base station (450a, 450b), one or more silent subcarriers among a plurality of subcarriers in a physical resource block, PRB, associated with a communication system; and transmitting, to a user equipment, a signaling instruction via downlink control information, DCI, signaling that instructs whether to mute the one or more silent subcarriers, wherein the signaling instruction instructs whether to mute the one or more silent subcarriers when a muting-subcarrier function is enabled via signaling and in response to the one or more silent subcarriers being in the data channel, wherein the communication system and another communication system comprise a first PRB located on one side of a direct current, DC, subcarrier that is aligned, and wherein the communication system and another communication system comprise a set of PRBs located on another side of the DC subcarrier that are misaligned. wherein the signaling instruction instructs whether to mute the one or more silent subcarriers when a muting-subcarrier function is enabled via signaling and in response to the one or more silent subcarriers being in the data channel, wherein the communication system and another communication system comprise a first PRB located on one side of a direct current, DC, subcarrier that is aligned, and wherein the communication system and another communication system comprise a set of PRBs located on another side of the DC subcarrier that are misaligned.
A relay apparatus comprising: a communication unit configured to relay first encoded data used for playback at first quality and second encoded data used for playback at second quality higher than the first quality, for same temporally continuous content transmitted from a transmission apparatus to a reception apparatus, and relay first position information relating to a data position transmitted from the reception apparatus to the transmission apparatus; a storage unit; and a control unit configured to determine whether to cause the storage unit to hold the first encoded data, on the basis of a format of the first encoded data relayed from the communication unit, wherein the communication unit relays the first encoded data, and thereafter, relays the first position information, and relays a portion of the second encoded data corresponding to the first position information. a communication unit configured to relay first encoded data used for playback at first quality and second encoded data used for playback at second quality higher than the first quality, for same temporally continuous content transmitted from a transmission apparatus to a reception apparatus, and relay first position information relating to a data position transmitted from the reception apparatus to the transmission apparatus; a storage unit; and a control unit configured to determine whether to cause the storage unit to hold the first encoded data, on the basis of a format of the first encoded data relayed from the communication unit, wherein the communication unit relays the first encoded data, and thereafter, relays the first position information, and relays a portion of the second encoded data corresponding to the first position information.
A wide field of view (WFOV) optical system (200; 500) comprising: a negative optical-power primary mirror (210; 510) configured to receive and reflect light from an image scene; a low optical-power secondary mirror (220; 520) configured to receive and reflect light from the primary mirror; a negative optical-power tertiary mirror (230; 530) configured to receive and reflect light from the secondary mirror; and a positive optical-power quaternary mirror (240; 540) configured to receive and reflect light from the tertiary mirror, wherein the primary, secondary, tertiary and quaternary mirrors are configured to maintain an effective focal length at edges of the field of view of the optical system to be at least equal to that at the center of the field of view of the optical system so that a spatial resolution of the optical system essentially remains constant across the field of view when imaging the ground from an altitude. a negative optical-power primary mirror (210; 510) configured to receive and reflect light from an image scene; a low optical-power secondary mirror (220; 520) configured to receive and reflect light from the primary mirror; a negative optical-power tertiary mirror (230; 530) configured to receive and reflect light from the secondary mirror; and a positive optical-power quaternary mirror (240; 540) configured to receive and reflect light from the tertiary mirror, wherein the primary, secondary, tertiary and quaternary mirrors are configured to maintain an effective focal length at edges of the field of view of the optical system to be at least equal to that at the center of the field of view of the optical system so that a spatial resolution of the optical system essentially remains constant across the field of view when imaging the ground from an altitude.
Induction heating apparatus, in particular induction hob apparatus, with five independent induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) and an electronics unit that is provided to supply the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f), wherein the electronics unit is provided in order to supply the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) from at most two different energy sources (30-30f, 40-40f), wherein the energy sources (30-30f, 40-40f) are each formed by a phase of a multiphase home connection and the electronics unit is provided in order to supply at least two of the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) from different energy sources of the energy sources (30-30f, 40-40f) in at least one operating mode, wherein the electronics unit has two heating frequency modules (32-32f, 42-42f) that are provided in order to draw energy from different energy sources of the energy sources (30-30f, 40-40f) and to supply some of the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) in each case, and wherein a first of the heating frequency modules (32-32f, 42c, 42e, 42f) is provided in order to draw energy from a first of the energy sources and to use this to supply the first, second and third induction heating groups (20, 22, 24) when a heating output is requested therefor, wherein the heating frequency module has two heating frequency units that are each formed by two switching elements that are connected in series and embodied as IGBTs, wherein a high-frequency alternating current can be tapped between the switching elements, wherein the first heating frequency module has a switching unit that is provided in order to optionally connect any of the two of the three induction heating groups (20, 22, 24) simultaneously to one of the heating frequency units in each case, or to connect any one of the three induction heating groups (20, 22, 24) simultaneously to both heating frequency units, in order to operate them in a boost mode.
A resin composition comprising: an ethylene-vinyl alcohol copolymer; an unmodified ethylene-α-olefin copolymer; an acid modified ethylene-α-olefin copolymer; and alkali metal salt, wherein a mass ratio [ /( +)] of the ethylene-vinyl alcohol copolymer to a total amount of the unmodified ethylene-α-olefin copolymer and the acid modified ethylene-α-olefin copolymer is from 80/20 to 65/35, a mass ratio [ /] of the unmodified ethylene-α-olefin copolymer to the acid modified ethylene-α-olefin copolymer is from 92/8 to 70/30, the ethylene-vinyl alcohol copolymer has a melt flow rate (at 210°C under a load of 2160 g) of not less than 8.0 g/10 min. and not more than 15 g/10 min., a content of the alkali metal salt is not less than 25 ppm and not more than 300 ppm in terms of metal based on a total amount of the ethylene-vinyl alcohol copolymer, the unmodified ethylene-α-olefin copolymer, and the acid modified ethylene-α-olefin copolymer, and the resin composition has an MFR (at 210°C under a load of 2160 g) of not less than 2.0 g/10 min. and not more than 4.0 g/10 min.
An antibody or antigen binding fragment thereof capable of specific binding to a polypeptide selected from the group consisting of: a) a polypeptide of SEQ ID NO.:70, b) a polypeptide encoded by SEQ ID NO.:24, c) a fragment comprising at least 6 consecutive amino acids of SEQ ID NO.:70, d) a derivative of any one of a) or b) wherein said derivative has at least 80% sequence similarity to the polypeptide of a) or b); and e) an analog of any one of a) or b) wherein said analogue has at least 80% sequence similarity to the polypeptide of a) or b), for use in treating cancer, wherein said antibody is capable of inhibiting the growth of cancer cells. a) a polypeptide of SEQ ID NO.:70, b) a polypeptide encoded by SEQ ID NO.:24, c) a fragment comprising at least 6 consecutive amino acids of SEQ ID NO.:70, d) a derivative of any one of a) or b) wherein said derivative has at least 80% sequence similarity to the polypeptide of a) or b); and e) an analog of any one of a) or b) wherein said analogue has at least 80% sequence similarity to the polypeptide of a) or b),
A wearable sensor device for measuring a physiological parameter of a wearer, said device comprising a housing comprising at least one sensor arranged on a first side of said housing to be applied against the wearer's skin, a flexible band connected to said housing for being wound around a body part of the wearer and for holding the first side of said housing against the wearer's skin, wherein said band has a first side to be facing said wearer's skin, at least one stopper device (10, 14, 20) arranged over a surface of the first side (3, 8) of said housing or of said band, wherein said stopper device (10, 14, 20) has a higher coefficient of static friction than said surface, characterized in that said sensor device comprises at least one stopper device affixed to the first side of said housing, wherein said housing forms, at its first side, a recess, wherein said sensor is arranged at a bottom of said recess and said stopper device is arranged on at least one side wall of said recess, with said side wall being inclined with respect to said bottom.
A splice bar for guiding and uniting a first stream of rubber with a second stream of rubber in a tire component tread extruding apparatus, the splice bar comprising: a first surface for guiding a first stream of rubber; a second surface for guiding a second stream of rubber, the first and second surfaces (4, 5) converging downstream for uniting the first and second streams of rubber; a third surface intersecting the first and second surfaces (4, 5) upstream; a chimney block extending from the first surface; and a slot provided at a downstream side of the chimney block and extending substantially along the chimney block; a passage arranged between the slot and the second surface for communicating the slot with the second surface in order to feed a strip of rubber from the second stream to the first stream through the slot during an extrusion process; characterized in that the passage is shaped such that it communicates the slot with the second surface continuously from the intersection with the third surface to the slot. a first surface for guiding a first stream of rubber; a second surface for guiding a second stream of rubber, the first and second surfaces (4, 5) converging downstream for uniting the first and second streams of rubber; a third surface intersecting the first and second surfaces (4, 5) upstream; a chimney block extending from the first surface; and a slot provided at a downstream side of the chimney block and extending substantially along the chimney block; a passage arranged between the slot and the second surface for communicating the slot with the second surface in order to feed a strip of rubber from the second stream to the first stream through the slot during an extrusion process; characterized in that the passage is shaped such that it communicates the slot with the second surface continuously from the intersection with the third surface to the slot.
A polymer-containing composition comprising: a (meth)acryl-based copolymer (A-1), wherein the (meth)acryl-based copolymer (A-1) contains a constitutional unit represented by Formula or a constitutional unit represented by Formula and has a weight-average molecular weight of 1,000 to 5,000, determined by GPC using polystyrene standards, and a coating film hardness of the polymer-containing composition, determined in accordance with the section "<Coating film hardness (Martens hardness)>" of this specification, is equal to or higher than 2.5 N/mm 2, -(C=O)-O-M-O-(C=O)-... -(C=O)-O-M-R 32 ··· wherein R 32 represents an organic acid residue, and M represents a divalent metal atom, and wherein a solubility parameter of the polymer-containing composition, determined in accordance with the section "(Solubility parameter)" of this specification, is less than 11.1. a (meth)acryl-based copolymer (A-1), wherein the (meth)acryl-based copolymer (A-1) contains a constitutional unit represented by Formula or a constitutional unit represented by Formula and has a weight-average molecular weight of 1,000 to 5,000, determined by GPC using polystyrene standards, and a coating film hardness of the polymer-containing composition, determined in accordance with the section "<Coating film hardness (Martens hardness)>" of this specification, is equal to or higher than 2.5 N/mm 2, -(C=O)-O-M-O-(C=O)-... -(C=O)-O-M-R 32 ··· wherein R 32 represents an organic acid residue, and M represents a divalent metal atom, and wherein a solubility parameter of the polymer-containing composition, determined in accordance with the section "(Solubility parameter)" of this specification, is less than 11.1.
An electronic device comprising: a housing; a display disposed on the housing; an illuminance sensor mounted under the display inside the electronic device to detect light received by the illuminance sensor comprising external light received through the display and light emitted from the display; and a processor electrically connected with the display and the illuminance sensor, wherein the processor is configured to: obtain illuminance detection data from the illuminance sensor while an image is displayed on the display, identify a first brightness setting value of the display, identify an image brightness ratio for the image displayed on the display when the illuminance sensor detects light, identify an illuminance of outside of the electronic device based on the obtained illuminance detection data from the illuminance sensor and compensation value, wherein the compensation value is identified based on the identified first brightness setting value of the display and the identified image brightness ratio of the image, and set a brightness setting of the display to a second brightness setting value identified based at least on the identified illuminance of outside of the electronic device. a housing; a display disposed on the housing; an illuminance sensor mounted under the display inside the electronic device to detect light received by the illuminance sensor comprising external light received through the display and light emitted from the display; and a processor electrically connected with the display and the illuminance sensor, wherein the processor is configured to: obtain illuminance detection data from the illuminance sensor while an image is displayed on the display, identify a first brightness setting value of the display, identify an image brightness ratio for the image displayed on the display when the illuminance sensor detects light, identify an illuminance of outside of the electronic device based on the obtained illuminance detection data from the illuminance sensor and compensation value, wherein the compensation value is identified based on the identified first brightness setting value of the display and the identified image brightness ratio of the image, and set a brightness setting of the display to a second brightness setting value identified based at least on the identified illuminance of outside of the electronic device. obtain illuminance detection data from the illuminance sensor while an image is displayed on the display, identify a first brightness setting value of the display, identify an image brightness ratio for the image displayed on the display when the illuminance sensor detects light, identify an illuminance of outside of the electronic device based on the obtained illuminance detection data from the illuminance sensor and compensation value, wherein the compensation value is identified based on the identified first brightness setting value of the display and the identified image brightness ratio of the image, and set a brightness setting of the display to a second brightness setting value identified based at least on the identified illuminance of outside of the electronic device.