mhurhangee/ep-ind-claims huggingface dataset:
A vehicle travel control apparatus, comprising: a sensor that obtains preceding vehicle speed information representing a vehicle speed of a preceding vehicle, and preceding vehicle information representing at least one of a lateral position and a lateral speed of the preceding vehicle with respect to a traveling direction of a host vehicle; and a controller that, during a following mode in which the host vehicle follows the preceding vehicle, determines a target value related to acceleration/deceleration of the host vehicle based on the preceding vehicle speed information such that the host vehicle follows the preceding vehicle, and controls the acceleration/deceleration of the host vehicle such that the target value is implemented, characterized in that the controller calculates, based on an operation state of a winker by a driver and the preceding vehicle information, a preceding vehicle leaving probability indicative of a probability that the preceding vehicle is out of a state in which the preceding vehicle is to be followed, during the following mode, the controller suppresses control of the acceleration/deceleration when a predetermined accelerator operation is detected, and cancels suppression of the control of the acceleration/deceleration, and the controller corrects the target value related to the acceleration/deceleration of the host vehicle based on the preceding vehicle leaving probability in a state immediately after canceling the suppression of the control of the acceleration/deceleration. a sensor that obtains preceding vehicle speed information representing a vehicle speed of a preceding vehicle, and preceding vehicle information representing at least one of a lateral position and a lateral speed of the preceding vehicle with respect to a traveling direction of a host vehicle; and a controller that, during a following mode in which the host vehicle follows the preceding vehicle, determines a target value related to acceleration/deceleration of the host vehicle based on the preceding vehicle speed information such that the host vehicle follows the preceding vehicle, and controls the acceleration/deceleration of the host vehicle such that the target value is implemented, characterized in that the controller calculates, based on an operation state of a winker by a driver and the preceding vehicle information, a preceding vehicle leaving probability indicative of a probability that the preceding vehicle is out of a state in which the preceding vehicle is to be followed, during the following mode, the controller suppresses control of the acceleration/deceleration when a predetermined accelerator operation is detected, and cancels suppression of the control of the acceleration/deceleration, and the controller corrects the target value related to the acceleration/deceleration of the host vehicle based on the preceding vehicle leaving probability in a state immediately after canceling the suppression of the control of the acceleration/deceleration.
A method of curing a photo-curable printing plate (1211; 1311; 1411), comprising: providing a light exposure unit (1209; 1309; 1409) comprising a light tunnel having a cross-section and a plurality of walls each wall having a reflective inner surface; placing a photo-curable printing plate (1211; 1311; 1411) near the light exposure unit (1209; 1309; 1409) having a length, a cross-section, and a pair of ends being a source end and a plate end, the plate (1211; 1311; 1411) having a printing surface placed with the printing surface closer to the plate end than to the source end with the printing plate (1211; 1311; 1411) substantially parallel to the cross-section of the light exposure unit (1209; 1309; 1409); producing light radiation by a light source located at or near one end, called the source end of the light tunnel to the inside of the light tunnel towards the other end of the light tunnel, called the plate end, including towards the reflective inner surfaces of the walls; and operating the light source to cure the plate material by applying light radiation for a time sufficient for curing; characterized in that the cross-section of said light tunnel is polygonal like a kaleidoscope and has at least four of said walls, wherein said at least four walls consist of pairs of walls, each of said pairs of walls having a first wall and a second wall opposite to and parallel to said first wall, said reflective inner surface of said first wall facing said reflective inner surface of said second wall. providing a light exposure unit (1209; 1309; 1409) comprising a light tunnel having a cross-section and a plurality of walls each wall having a reflective inner surface; placing a photo-curable printing plate (1211; 1311; 1411) near the light exposure unit (1209; 1309; 1409) having a length, a cross-section, and a pair of ends being a source end and a plate end, the plate (1211; 1311; 1411) having a printing surface placed with the printing surface closer to the plate end than to the source end with the printing plate (1211; 1311; 1411) substantially parallel to the cross-section of the light exposure unit (1209; 1309; 1409); producing light radiation by a light source located at or near one end, called the source end of the light tunnel to the inside of the light tunnel towards the other end of the light tunnel, called the plate end, including towards the reflective inner surfaces of the walls; and operating the light source to cure the plate material by applying light radiation for a time sufficient for curing; characterized in that the cross-section of said light tunnel is polygonal like a kaleidoscope and has at least four of said walls, wherein said at least four walls consist of pairs of walls, each of said pairs of walls having a first wall and a second wall opposite to and parallel to said first wall, said reflective inner surface of said first wall facing said reflective inner surface of said second wall.
A method of manufacturing gallium nitride based compound semiconductor light-emitting device comprising: a gallium nitride based compound semiconductor device including a p-type semiconductor layer (114, 214); and a transparent conductive oxide film (115, 215) that includes dopants and is formed on the p-type semiconductor layer (114, 214), wherein a dopant concentration at an interface between the p-type semiconductor layer (114, 214) and the transparent conductive oxide film (115, 215) is higher than a bulk dopant concentration of the transparent conductive oxide film (115, 215) to form a highly doped region, wherein the highly doped region is provided in the range of 0.1 to 10 nm from the center of the interface, characterised in the method comprising: a step of forming said highly doped region as a transparent conductive oxide film contact layer by sequentially forming a layer having a dopant concentration that is higher than that of the transparent conductive oxide film (115, 215) and the transparent conductive oxide film (115, 215) on the p-type semiconductor layer (114, 214) of the gallium nitride based compound semiconductor device; and performing a thermal annealing process at a temperature in a range of 200°C to 900 °C. a gallium nitride based compound semiconductor device including a p-type semiconductor layer (114, 214); and a transparent conductive oxide film (115, 215) that includes dopants and is formed on the p-type semiconductor layer (114, 214), wherein a dopant concentration at an interface between the p-type semiconductor layer (114, 214) and the transparent conductive oxide film (115, 215) is higher than a bulk dopant concentration of the transparent conductive oxide film (115, 215) to form a highly doped region, wherein the highly doped region is provided in the range of 0.1 to 10 nm from the center of the interface, characterised in the method comprising: a step of forming said highly doped region as a transparent conductive oxide film contact layer by sequentially forming a layer having a dopant concentration that is higher than that of the transparent conductive oxide film (115, 215) and the transparent conductive oxide film (115, 215) on the p-type semiconductor layer (114, 214) of the gallium nitride based compound semiconductor device; and performing a thermal annealing process at a temperature in a range of 200°C to 900 °C. a step of forming said highly doped region as a transparent conductive oxide film contact layer by sequentially forming a layer having a dopant concentration that is higher than that of the transparent conductive oxide film (115, 215) and the transparent conductive oxide film (115, 215) on the p-type semiconductor layer (114, 214) of the gallium nitride based compound semiconductor device; and performing a thermal annealing process at a temperature in a range of 200°C to 900 °C.
A base station antenna, comprising: a first radio frequency, RF, port; a second RF port; a first array of radiating elements that is coupled to the first RF port through a first feed network; a second array of radiating elements that is coupled to the second RF port through a second feed network; a first circuit element; and a second circuit element; wherein the first circuit element has a first port coupled to the first feed network, a second port coupled to a first port of the second circuit element, and a third port coupled to a first radiating element of the first array of radiating elements, and wherein the second circuit element has a second port coupled to a first radiating element of the second array of radiating elements and a third port coupled to the second feed network, characterised in that: the first circuit element is a diplexer, the second circuit element is a diplexer or a power divider with a filter on a first output port thereof, and one or more of the radiating elements of the first array of radiating elements are shared with the second array of radiating elements, but only for certain sub-bands of the operating frequency band of the first array of radiating elements. a first radio frequency, RF, port; a second RF port; a first array of radiating elements that is coupled to the first RF port through a first feed network; a second array of radiating elements that is coupled to the second RF port through a second feed network; a first circuit element; and a second circuit element; wherein the first circuit element has a first port coupled to the first feed network, a second port coupled to a first port of the second circuit element, and a third port coupled to a first radiating element of the first array of radiating elements, and wherein the second circuit element has a second port coupled to a first radiating element of the second array of radiating elements and a third port coupled to the second feed network, characterised in that: the first circuit element is a diplexer, the second circuit element is a diplexer or a power divider with a filter on a first output port thereof, and one or more of the radiating elements of the first array of radiating elements are shared with the second array of radiating elements, but only for certain sub-bands of the operating frequency band of the first array of radiating elements. the first circuit element is a diplexer, the second circuit element is a diplexer or a power divider with a filter on a first output port thereof, and one or more of the radiating elements of the first array of radiating elements are shared with the second array of radiating elements, but only for certain sub-bands of the operating frequency band of the first array of radiating elements.
A method of signalling resource allocation data in a communication system which uses a plurality of frequency blocks in each of which a plurality of sub-carriers are arranged in a sequence of contiguous resource blocks, the method comprising: determining at least two non-contiguous frequency blocks, of the plurality of frequency blocks, assigned for use by a user device,; determining an allocation of resource blocks within the at least two identified frequency blocks, for use by said user device; generating first resource allocation data identifying the at least two determined frequency blocks, of the plurality of frequency blocks, which have been assigned for use by the user device; generating second resource allocation data identifying the determined allocation of resource blocks within the at least two identified frequency blocks for the user device, wherein said second resource allocation data is dependent on the determined at least two frequency blocks assigned for use by the user device; and signalling said first and second resource allocation data to said user device. determining at least two non-contiguous frequency blocks, of the plurality of frequency blocks, assigned for use by a user device,; determining an allocation of resource blocks within the at least two identified frequency blocks, for use by said user device; generating first resource allocation data identifying the at least two determined frequency blocks, of the plurality of frequency blocks, which have been assigned for use by the user device; generating second resource allocation data identifying the determined allocation of resource blocks within the at least two identified frequency blocks for the user device, wherein said second resource allocation data is dependent on the determined at least two frequency blocks assigned for use by the user device; and signalling said first and second resource allocation data to said user device.
A rod-shaped tubular cell structure maintaining support device for fer cultivating a tubular cell structure for a predetermined time period, the tubular cell structure including a hollow portion inside of the tubular cell structure, and maintaining the hollow portion, wherein the tubular cell structure maintaining support device comprises: an outer diameter insertable into the hollow portion of the tubular cell structure, in a case where the rod-shaped tubular cell structure maintaining support device is inserted into the hollow portion, the outer diameter capable of allowing the tubular cell structure maintaining support device closely to contact an inner surface of the tubular cell structure; and a penetration conduit including openings at both ends of the tubular cell structure maintaining support device, the penetration conduit penetrating between the openings, wherein the tubular cell structure maintaining support device has an oxygen permeable structure from the penetration conduit to an outer surface of the tubular cell structure maintaining support device. an outer diameter insertable into the hollow portion of the tubular cell structure, in a case where the rod-shaped tubular cell structure maintaining support device is inserted into the hollow portion, the outer diameter capable of allowing the tubular cell structure maintaining support device closely to contact an inner surface of the tubular cell structure; and a penetration conduit including openings at both ends of the tubular cell structure maintaining support device, the penetration conduit penetrating between the openings, wherein the tubular cell structure maintaining support device has an oxygen permeable structure from the penetration conduit to an outer surface of the tubular cell structure maintaining support device.
A method for requesting a certificate from a certificate issuer for a public key that is associated with a corresponding private key stored by a storing entity, the method comprising: generating by means of a generating entity a certificate request message indicative of a request for a certificate; and transmitting the certificate request message to the certificate issuer; and characterised in that: the certificate request message includes an indication of the relationship between the storing entity and the generating entity. generating by means of a generating entity a certificate request message indicative of a request for a certificate; and transmitting the certificate request message to the certificate issuer; and characterised in that: the certificate request message includes an indication of the relationship between the storing entity and the generating entity. the certificate request message includes an indication of the relationship between the storing entity and the generating entity.
A permanent percutaneous electric connection device intended to be fixed in an osseous structure of a patient to electrically connect an internal entity located inside the body of the patient to an entity external to said body, wherein: - the device encloses electric connection means running from a first connector to be connected to the external entity to a second connector to be connected to the internal entity, and - the device comprises a percutaneous socket having a first end comprising the first connector to be connected to the external entity and a second end opposite to the first end, and electric connection member comprising the second connector, characterized in that the device further comprises an extension member extending from the second end of the socket and being angled relative to the socket to shift the second connector away from the socket by a non-zero distance in a radial direction relative to the main axis of the socket, wherein the extension member is further designed for full osseous burial into the osseous structure with a free end to be substantially flush with the surface of said osseous structure, and wherein the electric connection member is securely fastened to the free end of the extension member. - the device encloses electric connection means running from a first connector to be connected to the external entity to a second connector to be connected to the internal entity, and - the device comprises a percutaneous socket having a first end comprising the first connector to be connected to the external entity and a second end opposite to the first end, and electric connection member comprising the second connector,
A catalyst unit, in particular SCR catalyst unit for an SCR exhaust gas catalytic converter of a diesel internal combustion engine for a ship, with a non-metallic, in particular ceramic or fibre-containing catalyst body flowed through by exhaust gas, which has a substantially cuboid shape with a substantially rectangular inflow side and a substantially rectangular outflow side; a metallic housing, which surrounds the catalyst body in sections; at least one bearing mat, which is positioned between a gap formed between the catalyst body and the housing; characterized in that the margins or edges of the catalyst body delimiting the inflow side and the outflow side each have dimensions between 210 mm and 280 mm, preferably between 230 mm and 260 mm; the gap between the catalyst body and the metallic housing perpendicularly to the through-flow direction of the catalyst body has a dimension which is determined according to the following relationship: s≤p*5, wherein s is the dimension of the gap in mm, and wherein p is the dimensionless amount of the density of the bearing mat expressed in kg/m 2 or when multiple bearing mats are used, the mean density of the bearing mats, wherein the housing in the region of the inflow side and in the region of the outflow side of the catalyst body comprises protrusions, which at least partly close the gap between the catalyst body and the housing and which, in the projection, cover the inflow side and the outflow side adjacent to the margins or edges of the catalyst body delimiting the inflow side and the outflow side and the protrusion has a maximum width of 20 mm, preferably of 7 mm to 17 mm.
A signal processing device with an input stage to condition a physiological signal, especially an electrocardiogram signal, wherein the input stage is designed to form, from the physiological signal, an alternating polarity signal and provide it for evaluation, and is, in order to transmit the signal to be evaluated connected with an evaluation stage, the evaluation stage being designed to respond to a reference time point associated with the physiological signal, and to measure one amplitude value for each of at least some characteristic curve points, such as signal maxima and minima, points of inflexion, or similar points, contained in at least one signal segment in the signal to be evaluated, this signal segment being associated in time with the reference time point; and to generate, from the amplitude values obtained in this way, a morphology code that describes the shape of the respective signal segment and that allows approximate reconstruction of the signal morphology of a respective signal segment, characterized in that the evaluation stage has at least one zero crossing detector that is designed to detect zero crossings within a signal segment of the signal to be evaluated, and a curve point detector for characteristic curve points such as signal maxima and minima and/or points of inflexion, etc., that is designed to analyze a respective characteristic curve point of the signal to be evaluated between two zero crossings for parameters describing it such as amplitude and relative position on a time axis with respect to a reference signal, and wherein the evaluation stage is designed to produce, from the output signal of the maximum / minimum detector, an evaluation signal that reflects the relative amplitudes of the signal maxima and minima with respect to a reference signal amplitude and a scaling factor; and the parameters describing morphology, and that at least partially determines the morphology code.
A liquid silicone rubber coating composition comprising 100 parts by weight of organopolysiloxane having at least 2 alkenyl groups bonded to silicon atoms per molecule; organohydrogenpolysiloxane having at least 2 hydrogen atoms bonded to silicon atoms per molecule, at an amount such that 1 to 10 hydrogen atoms bonded to silicon atoms in the component are present in relation to one alkenyl group bonded to the silicon atom in the component; an effective amount of addition reaction catalyst; 1 to 50 parts by weight of fumed silica, as fine powder silica having a specific surface area of at least 50 m 2 /g; 0.1 to 10 parts by weight of organic compound represented by the following general formula: wherein groups R 1 independently are substituted or unsubstituted monovalent hydrocarbon and n is an integer of 2 to 10; 0.1 to 10 parts by weight of organosilicon compound having in the molecule an epoxy group and an alkoxy group bonded to silicon atom, and 0.1 to 5 parts by weight of titanium compound and/or zirconium compound. 100 parts by weight of organopolysiloxane having at least 2 alkenyl groups bonded to silicon atoms per molecule; organohydrogenpolysiloxane having at least 2 hydrogen atoms bonded to silicon atoms per molecule, at an amount such that 1 to 10 hydrogen atoms bonded to silicon atoms in the component are present in relation to one alkenyl group bonded to the silicon atom in the component; an effective amount of addition reaction catalyst; 1 to 50 parts by weight of fumed silica, as fine powder silica having a specific surface area of at least 50 m 2 /g; 0.1 to 10 parts by weight of organic compound represented by the following general formula: wherein groups R 1 independently are substituted or unsubstituted monovalent hydrocarbon and n is an integer of 2 to 10; 0.1 to 10 parts by weight of organosilicon compound having in the molecule an epoxy group and an alkoxy group bonded to silicon atom, and 0.1 to 5 parts by weight of titanium compound and/or zirconium compound.