mhurhangee/ep-ind-claims huggingface dataset:
A transmission device comprising: a video encoding unit configured to generate a video stream with video data; a subtitle encoding unit configured to generate a subtitle stream with bitmap data obtained by conversion of subtitle graphics data; and a transmission unit configured to transmit a container containing the video stream and the subtitle stream, wherein the subtitle stream contains a first segment having a bitmap conversion table with color gamut and/or brightness conversion information to enable a receiving device to convert the bitmap data to the subtitle graphics data conformable to color gamut or dynamic range of superimposition target video data on which the subtitle graphics data is superimposed, wherein the subtitle stream includes bitmap conversion table conformability information that includes characteristic information regarding the subtitle graphics data after conversion from the bitmap data or the subtitle graphics data before conversion into the bitmap data, wherein if there are multiple bitmap conversion tables, a bitmap conversion table conformable to the characteristics of the superimposition target video data is selected by a receiving device among the multiple bitmap conversion tables based on the bitmap conversion table conformability information. a video encoding unit configured to generate a video stream with video data; a subtitle encoding unit configured to generate a subtitle stream with bitmap data obtained by conversion of subtitle graphics data; and a transmission unit configured to transmit a container containing the video stream and the subtitle stream, wherein the subtitle stream contains a first segment having a bitmap conversion table with color gamut and/or brightness conversion information to enable a receiving device to convert the bitmap data to the subtitle graphics data conformable to color gamut or dynamic range of superimposition target video data on which the subtitle graphics data is superimposed, wherein the subtitle stream includes bitmap conversion table conformability information that includes characteristic information regarding the subtitle graphics data after conversion from the bitmap data or the subtitle graphics data before conversion into the bitmap data, wherein if there are multiple bitmap conversion tables, a bitmap conversion table conformable to the characteristics of the superimposition target video data is selected by a receiving device among the multiple bitmap conversion tables based on the bitmap conversion table conformability information.
A method of forming a textile element for use as a structural support component in a garment, the method comprising the steps of: (i) providing a fabric strip having a plush surface; (ii) applying a thermoplastic coating to the plush surface of the fabric strip so that the thermoplastic coating penetrates the plush surface; and (iii) allowing the thermoplastic coating to cool and rigidify so as to embed at least surface yarns of the plush surface in the thermoplastic coating and thereby form a composite structure at the juncture between the thermoplastic coating and the plush surface, characterised in that the fabric strip is a woven structure including a pair of ribs protruding from the fabric strip, on opposites sides of the plush surface, the thermoplastic coating being applied to the plush surface, between the ribs, so that the thermoplastic coating penetrates the plush surface so as to embed the warp yarns of the plush surface in the composite structure following cooling and rigidifying of the thermoplastic coating, and the method further includes the step of folding the fabric strip about the thermoplastic coating before allowing the thermoplastic coating to cool and rigidify so as to sandwich the thermoplastic coating between the plush surface and an opposing surface of the fabric strip, and wherein the fabric strip further includes a pair of ribs protruding from the opposing surface of the fabric strip and the step of folding the fabric strip about the thermoplastic coating involves aligning the ribs protruding from the opposing surface in face to face contact with the ribs protruding from the fabric strip on opposite sides of the plush surface. (i) providing a fabric strip having a plush surface; (ii) applying a thermoplastic coating to the plush surface of the fabric strip so that the thermoplastic coating penetrates the plush surface; and (iii) allowing the thermoplastic coating to cool and rigidify so as to embed at least surface yarns of the plush surface in the thermoplastic coating and thereby form a composite structure at the juncture between the thermoplastic coating and the plush surface,
A method for performing uplink transmission, the method performed by a wireless communication device and comprising: receiving Physical Uplink Control Channel, PUCCH, configuration information for each of a plurality of PUCCH resources, wherein the PUCCH configuration information indicates whether frequency hopping is enabled or disabled for each PUCCH resource, wherein each PUCCH resource is associated with a respective one of a plurality of PUCCH formats, and wherein each PUCCH resource is associated with a respective PUCCH resource index; transmitting a PUCCH signal based on a PUCCH resource among the plurality of PUCCH resources, for which frequency hopping is enabled or disabled based on the PUCCH configuration information for the PUCCH resource; wherein based on frequency hopping being enabled for the PUCCH resource, the PUCCH signal is transmitted on the PUCCH resource with frequency hopping; and wherein based on frequency hopping being disabled for the PUCCH resource, the PUCCH signal is transmitted on the PUCCH resource without frequency hopping. receiving Physical Uplink Control Channel, PUCCH, configuration information for each of a plurality of PUCCH resources, wherein the PUCCH configuration information indicates whether frequency hopping is enabled or disabled for each PUCCH resource, wherein each PUCCH resource is associated with a respective one of a plurality of PUCCH formats, and wherein each PUCCH resource is associated with a respective PUCCH resource index; transmitting a PUCCH signal based on a PUCCH resource among the plurality of PUCCH resources, for which frequency hopping is enabled or disabled based on the PUCCH configuration information for the PUCCH resource; wherein based on frequency hopping being enabled for the PUCCH resource, the PUCCH signal is transmitted on the PUCCH resource with frequency hopping; and wherein based on frequency hopping being disabled for the PUCCH resource, the PUCCH signal is transmitted on the PUCCH resource without frequency hopping.
A photovoltaic roofing system, comprising: a ridge cap adapted to cover a ridge of a roof structure; and at least one photovoltaic cell disposed within the ridge cap; characterized in that the ridge cap further comprises an outer cover structure and an inner support structure, the outer cover structure being spaced apart from the inner support structure, the inner support structure having an opening for disposing over a ridge vent of the roof structure, and said spaced outer cover structure and inner support structure providing a venting path therebetween. a ridge cap adapted to cover a ridge of a roof structure; and at least one photovoltaic cell disposed within the ridge cap; characterized in that the ridge cap further comprises an outer cover structure and an inner support structure, the outer cover structure being spaced apart from the inner support structure, the inner support structure having an opening for disposing over a ridge vent of the roof structure, and said spaced outer cover structure and inner support structure providing a venting path therebetween.
A method for a gamma radiation-based sterilization of a hollow fiber filter module, the housing of which has at least two first ports (6, 8) leading to a first inner zone for supplying and discharging a dialysis liquid and at least two second ports (12, 14) leading to a second inner zone for supplying and discharging blood, characterized in that the first and second inner zones (10, 16) are tightly closed, in particular in air-tight or hermetic fashion, by means of the housing and by means of closures (18, 20, 22, 24) which each can be mounted to and dismantled from one of the ports (6, 8, 12, 14) of the housing without using any tool and can be connected to the respective port (6, 8, 12, 14) in a frictional and/or form-locking manner; and at least one of the closures (20, 22) comprises an oxygen absorber having a reactive surface area absorbing at least partially, preferably completely, any oxygen which is enclosed in the first and/or second inner zone (10, 16).
A platform lift for mounting on a vehicle chassis, the lift including a base adapted to be secured to a vehicle, an articulated boom pivotably connected to the base, the boom including at least a first boom member and a second boom member, - wherein the second boom member is pivotably connected to the first boom member through a knuckle structure at which adjacent ends of the first and second boom members (4, 5) are seated hingedly for pivoting about respective pivot axes (8, 9), - wherein the pivot axes (8, 9), which establish the mutual pivoting of the first and second boom members (4, 5), extend through the knuckle structure, - wherein the knuckle structure provides a lateral offset of the mutual position of the first and second boom members (4, 5) as seen from above so that the first and second boom members (4, 5) can be arranged side by side in a folded condition, and - wherein the knuckle structure is adapted such that the pivot axes (8, 9) for mutual pivoting of the first and second boom members (4, 5) are spaced apart so far that respective ends of the first and second boom members (4, 5) seated in the knuckle structure appear separated as seen in direction of the pivot axes (8, 9) in any position of the articulated boom, characterised in that, where the knuckle structure is adapted to be angularly positioned in relation to the first boom member by a hydraulic cylinder disposed inside the first boom member, and when the first boom member is raised to a vertical position, one of: the knuckle structure extends approximately horizontally and the outer boom suspended vertically down, and the knuckle provide an additional extension of the maximum horizontal reach of the platform. - wherein the second boom member is pivotably connected to the first boom member through a knuckle structure at which adjacent ends of the first and second boom members (4, 5) are seated hingedly for pivoting about respective pivot axes (8, 9), - wherein the pivot axes (8, 9), which establish the mutual pivoting of the first and second boom members (4, 5), extend through the knuckle structure, - wherein the knuckle structure provides a lateral offset of the mutual position of the first and second boom members (4, 5) as seen from above so that the first and second boom members (4, 5) can be arranged side by side in a folded condition, and - wherein the knuckle structure is adapted such that the pivot axes (8, 9) for mutual pivoting of the first and second boom members (4, 5) are spaced apart so far that respective ends of the first and second boom members (4, 5) seated in the knuckle structure appear separated as seen in direction of the pivot axes (8, 9) in any position of the articulated boom, characterised in that, where the knuckle structure is adapted to be angularly positioned in relation to the first boom member by a hydraulic cylinder disposed inside the first boom member, and when the first boom member is raised to a vertical position, one of: the knuckle structure extends approximately horizontally and the outer boom suspended vertically down, and the knuckle provide an additional extension of the maximum horizontal reach of the platform.
A method for foot pedal controlled OCT image display for ophthalmic surgery, comprising: during viewing of an interior portion of an eye of a patient using an ophthalmic visualization system, receiving a first instruction from a user of the ophthalmic visualization system of a location in the eye; based on the first instruction, performing optical coherence tomography scanning of the location commanded by an OCT scanning controller, the OCT scanning enabled to obtain an en face image of tissue layers at the location, the en face image comprising tissue layer data for each of a plurality of tissue layers of the eye, at various depths of the eye, at the location; causing the en face image to be displayed to the user; while the en face image is displayed to the user, receiving a second instruction from the user via a foot pedal device coupled to the OCT scanning controller, wherein the second instruction includes one of: a downward instruction to display a next tissue layer, closer to the back of the eye, from the plurality of tissue layers, and an upward instruction to display a previous tissue layer, closer to the front of the eye, from the plurality of tissue layers; and based on the second instruction, displaying the tissue layer data for one of the next tissue layer and the previous tissue layer to the user. during viewing of an interior portion of an eye of a patient using an ophthalmic visualization system, receiving a first instruction from a user of the ophthalmic visualization system of a location in the eye; based on the first instruction, performing optical coherence tomography scanning of the location commanded by an OCT scanning controller, the OCT scanning enabled to obtain an en face image of tissue layers at the location, the en face image comprising tissue layer data for each of a plurality of tissue layers of the eye, at various depths of the eye, at the location; causing the en face image to be displayed to the user; while the en face image is displayed to the user, receiving a second instruction from the user via a foot pedal device coupled to the OCT scanning controller, wherein the second instruction includes one of: a downward instruction to display a next tissue layer, closer to the back of the eye, from the plurality of tissue layers, and an upward instruction to display a previous tissue layer, closer to the front of the eye, from the plurality of tissue layers; and based on the second instruction, displaying the tissue layer data for one of the next tissue layer and the previous tissue layer to the user.
Foam-glass-granulate comprising loose expanded glass particles, the majority of which consists of glass, have expanded cavities, comprise a densely sintered surface made of glass, wherein the foam-glass-granulate has a raw-grain density between 0.9 g/cm 3 and 1.1 g/cm 3, as well as a grain strength of more than 5 N/mm 2, and it shows a water absorption of less than 10 wt.%, if it is exposed to water over a time period of 1 hour at a pressure of about 7 MPa.
Multi-Material-Blade for use in an active regenerative magneto-caloric or electro-caloric engine, the blade being a stack of a plurality of elements and comprising a blade body made from the plurality of elements, which are made from different magneto-caloric or electro-caloric materials, wherein the blade body is divided along its length into said plurality of elements; a plurality of dedicated channels, which penetrate the blade body and extend along the length of the blade, wherein each of the plurality of dedicated channels is provided with a hydrophobic coating layer, and a glass or plastic layer is provided beneath the hydrophobic coating layer.
A system for assessing a status of a spinal implant, the system comprising: a wearable apparatus comprising an electronics system, wherein the electronics system comprises: a first short-range receiver, and a first short-range transmitter, wherein the wearable apparatus is configured to constrain one or more movements of a wearer when worn, and one or more spinal implants (108a-N) in communication with the wearable apparatus, wherein one or more of the spinal implants (108a-N) comprises: one or more sensors configured to measure one or more characteristics of a fusion status of the spinal implant, a second short-range receiver, and a second short-range transmitter, wherein the one or more spinal implants (108a-N) are configured to communicate one or more of the measured characteristics to the wearable apparatus via the second short-range transmitter. a wearable apparatus comprising an electronics system, wherein the electronics system comprises: a first short-range receiver, and a first short-range transmitter, a first short-range receiver, and a first short-range transmitter, wherein the wearable apparatus is configured to constrain one or more movements of a wearer when worn, and one or more spinal implants (108a-N) in communication with the wearable apparatus, wherein one or more of the spinal implants (108a-N) comprises: one or more sensors configured to measure one or more characteristics of a fusion status of the spinal implant, a second short-range receiver, and a second short-range transmitter, one or more sensors configured to measure one or more characteristics of a fusion status of the spinal implant, a second short-range receiver, and a second short-range transmitter, wherein the one or more spinal implants (108a-N) are configured to communicate one or more of the measured characteristics to the wearable apparatus via the second short-range transmitter.
An intracardiac ventricular pacemaker, comprising: a pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via electrodes coupled to the pacemaker; a motion sensor configured to produce a motion signal comprising a ventricular diastolic event and an atrial systolic event; and characterised by a control circuit coupled to the motion sensor and the pulse generator and configured to: detect the ventricular diastolic event from the motion signal; start an atrial refractory period having an expiration time set based on a time of the detection of the ventricular diastolic event; detect a first atrial systolic event from the motion signal after expiration of the atrial refractory period; and control the pulse generator to deliver a first pacing pulse to the ventricle at a first atrioventricular pacing time interval after the first atrial systolic event detection. a pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via electrodes coupled to the pacemaker; a motion sensor configured to produce a motion signal comprising a ventricular diastolic event and an atrial systolic event; and characterised by a control circuit coupled to the motion sensor and the pulse generator and configured to: detect the ventricular diastolic event from the motion signal; start an atrial refractory period having an expiration time set based on a time of the detection of the ventricular diastolic event; detect a first atrial systolic event from the motion signal after expiration of the atrial refractory period; and control the pulse generator to deliver a first pacing pulse to the ventricle at a first atrioventricular pacing time interval after the first atrial systolic event detection. detect the ventricular diastolic event from the motion signal; start an atrial refractory period having an expiration time set based on a time of the detection of the ventricular diastolic event; detect a first atrial systolic event from the motion signal after expiration of the atrial refractory period; and control the pulse generator to deliver a first pacing pulse to the ventricle at a first atrioventricular pacing time interval after the first atrial systolic event detection.
A method for connecting a cellular phone with an enterprise network, comprising: deploying a carrier gateway server in a carrier network that provides cellular telecommunication services to cellular phones; deploying an enterprise gateway server in an enterprise network; coupling the enterprise gateway server with the carrier gateway server; receiving, by the carrier gateway server, an indication that a call is originating or terminating with a first cellular phone associated with the enterprise network; identifying, by the carrier gateway server, the enterprise network; and communicating, by the carrier gateway server, with the enterprise gateway server deployed in the enterprise network to obtain a routing for the call, characterized in that the enterprise gateway server has access to historical destination routing time data, wherein the enterprise gateway server is configured to use the historical destination routing time data to decide when to route a second call leg towards a destination in advance of a first call leg having been routed to the enterprise gateway server, wherein the method further comprises connecting a second call leg to a destination with a first call leg from the carrier gateway server. deploying a carrier gateway server in a carrier network that provides cellular telecommunication services to cellular phones; deploying an enterprise gateway server in an enterprise network; coupling the enterprise gateway server with the carrier gateway server; receiving, by the carrier gateway server, an indication that a call is originating or terminating with a first cellular phone associated with the enterprise network; identifying, by the carrier gateway server, the enterprise network; and communicating, by the carrier gateway server, with the enterprise gateway server deployed in the enterprise network to obtain a routing for the call, characterized in that the enterprise gateway server has access to historical destination routing time data, wherein the enterprise gateway server is configured to use the historical destination routing time data to decide when to route a second call leg towards a destination in advance of a first call leg having been routed to the enterprise gateway server, wherein the method further comprises connecting a second call leg to a destination with a first call leg from the carrier gateway server.