mhurhangee/ep-ind-claims huggingface dataset:
A card reader (104, 402) that communicates wirelessly, comprising: a frame, where the frame includes a top surface, a bottom surface, a first side surface, and a second side surface, a second side surface of the side surfaces on an opposite side of the frame from the first side surface, the first side surface including a slot configured to receive insertion of a chip card; a first card interface comprising one of: a magnetic stripe reader interface (206, 429) and a contactless card reader interface; a chip card reader interface (208, 423) including electrical contacts positioned in the frame to contact contacts of the chip card when it is inserted into the slot; where each of the first card interface and the chip card reader interface (208, 423) are configured to communicate with the microcontroller; and circuitry configured to communicate wirelessly between the card reader (104, 402) and a mobile computing device, wherein the microcontroller is configured to: detect a card insertion at the chip card reader interface (208, 423); upon detection of the card insertion, selectively power the chip card reader interface (208, 423) but not the first card interface; and send card data received from the chip card reader interface (208,423) to the circuitry configured to communicate wirelessly. a frame, where the frame includes a top surface, a bottom surface, a first side surface, and a second side surface, a second side surface of the side surfaces on an opposite side of the frame from the first side surface, the first side surface including a slot configured to receive insertion of a chip card; a first card interface comprising one of: a magnetic stripe reader interface (206, 429) and a contactless card reader interface; a chip card reader interface (208, 423) including electrical contacts positioned in the frame to contact contacts of the chip card when it is inserted into the slot; where each of the first card interface and the chip card reader interface (208, 423) are configured to communicate with the microcontroller; and circuitry configured to communicate wirelessly between the card reader (104, 402) and a mobile computing device, wherein the microcontroller is configured to: detect a card insertion at the chip card reader interface (208, 423); upon detection of the card insertion, selectively power the chip card reader interface (208, 423) but not the first card interface; and send card data received from the chip card reader interface (208,423) to the circuitry configured to communicate wirelessly. detect a card insertion at the chip card reader interface (208, 423); upon detection of the card insertion, selectively power the chip card reader interface (208, 423) but not the first card interface; and send card data received from the chip card reader interface (208,423) to the circuitry configured to communicate wirelessly.
A picture phone system comprising a transmission picture phone apparatus and a reception picture phone apparatus, wherein said transmission picture phone apparatus comprises: an imaging section which picks up picture data; a display section; a substitution image storage section which stores substitution picture data; an image processing section which is configured to: check whether said picked-up picture data is valid or invalid, based on at least one of brightness data and spatial frequency of said picked-up picture data; retrieve said substitution picture data from said substitution picture storage section to output as transmission picture data when it is determined that said picked-up picture data is invalid; set said picked-up picture data as said transmission picture data when it is determined that said picked-up picture data is valid; and encode said transmission picture data; and a communication processing section which is configured to multiplex said encoded transmission picture data and transmission audio data into transmission data and transmits said transmission data to a counter station. an imaging section which picks up picture data; a display section; a substitution image storage section which stores substitution picture data; an image processing section which is configured to: check whether said picked-up picture data is valid or invalid, based on at least one of brightness data and spatial frequency of said picked-up picture data; retrieve said substitution picture data from said substitution picture storage section to output as transmission picture data when it is determined that said picked-up picture data is invalid; set said picked-up picture data as said transmission picture data when it is determined that said picked-up picture data is valid; and encode said transmission picture data; and check whether said picked-up picture data is valid or invalid, based on at least one of brightness data and spatial frequency of said picked-up picture data; retrieve said substitution picture data from said substitution picture storage section to output as transmission picture data when it is determined that said picked-up picture data is invalid; set said picked-up picture data as said transmission picture data when it is determined that said picked-up picture data is valid; and encode said transmission picture data; and a communication processing section which is configured to multiplex said encoded transmission picture data and transmission audio data into transmission data and transmits said transmission data to a counter station.
A method comprising: establishing by a user equipment, UE, in a Long-Term Evolution, LTE, network for group communication a unicast Evolved Packet Service, EPS, bearer for Push to Talk over Cellular, PoC, DL and UL traffic, wherein the UE belongs to a PoC communication group having a PoC communication group ID; receiving access information by the UE for monitoring downlink, DL, multicast traffic of the DL group communication based on a multicast decision, wherein the multicast decision is for dynamically configuring a multicast Multimedia Broadcast Multicast Service, MBMS, bearer, the multicast MBMS bearer being associated with a Temporary Mobile Group Identifier, TMGI; and monitoring the MBMS bearer for receiving the DL multicast traffic using the access information, characterized in that the access information comprising mapping information associating the TMGI with the communication group ID is provided by the network, and in that the association between TMGI and the communication group ID is changed regularly. establishing by a user equipment, UE, in a Long-Term Evolution, LTE, network for group communication a unicast Evolved Packet Service, EPS, bearer for Push to Talk over Cellular, PoC, DL and UL traffic, wherein the UE belongs to a PoC communication group having a PoC communication group ID; receiving access information by the UE for monitoring downlink, DL, multicast traffic of the DL group communication based on a multicast decision, wherein the multicast decision is for dynamically configuring a multicast Multimedia Broadcast Multicast Service, MBMS, bearer, the multicast MBMS bearer being associated with a Temporary Mobile Group Identifier, TMGI; and monitoring the MBMS bearer for receiving the DL multicast traffic using the access information, characterized in that the access information comprising mapping information associating the TMGI with the communication group ID is provided by the network, and in that the association between TMGI and the communication group ID is changed regularly.
A combustion apparatus comprising a chamber having at least one side wall extending between first and second end walls (2,3), a feed inlet for combustible material extending through the side wall, a combustion gas outlet through the side wall distal of the feed inlet, an apertured rotatable tubular auger mounted between the first and second end walls (2, 3) and extending along the whole length of the chamber to convey particulate material from the region of the chamber proximate the feed inlet to the combustion gas outlet, a blower connected to an end of the tubular auger and configured to blow gas into a bore of the auger and out through the apertures into the chamber, and a primary ignition device arranged in the side wall of the chamber between the feed inlet and the combustion gas outlet, the primary ignition device comprising an oil or gas burner, an igniter and a gas inlet, characterised in that the auger comprises flights which are interrupted by gaps. a chamber having at least one side wall extending between first and second end walls (2,3), a feed inlet for combustible material extending through the side wall, a combustion gas outlet through the side wall distal of the feed inlet, an apertured rotatable tubular auger mounted between the first and second end walls (2, 3) and extending along the whole length of the chamber to convey particulate material from the region of the chamber proximate the feed inlet to the combustion gas outlet, a blower connected to an end of the tubular auger and configured to blow gas into a bore of the auger and out through the apertures into the chamber, and a primary ignition device arranged in the side wall of the chamber between the feed inlet and the combustion gas outlet, the primary ignition device comprising an oil or gas burner, an igniter and a gas inlet, characterised in that the auger comprises flights which are interrupted by gaps.
A nozzle, comprising: a first flow control element configured to control a flow of fluid into the nozzle; a second flow control element, disposed downstream from the first flow control element, and configured to control the flow of fluid between a straight bore outlet and a fog pattern outlet, wherein both the straight bore outlet and fog pattern outlet are downstream of the second flow control element; and a pattern sleeve operably coupled with the second flow control element, and configured to control the second flow control element using a rotation motion. a first flow control element configured to control a flow of fluid into the nozzle; a second flow control element, disposed downstream from the first flow control element, and configured to control the flow of fluid between a straight bore outlet and a fog pattern outlet, wherein both the straight bore outlet and fog pattern outlet are downstream of the second flow control element; and a pattern sleeve operably coupled with the second flow control element, and configured to control the second flow control element using a rotation motion.
A surgical repair graft comprising: more than two stacked biotextile layers made of collagen and joined together; and a bioabsorbable carrier matrix comprising multivesicular liposomes attached to at least one of the biotextile layers, the multivesicular liposomes comprising an active agent, wherein the multivesicular liposomes comprise a plurality of particles each having a plurality of non-concentric internally aqueous chambers each surrounded by a lipid membrane, at least one of the aqueous chambers and the lipid membrane containing the active agent, wherein the carrier matrix is attached to the biotextile layer at a plurality of discrete attachment sites, and wherein a first set of the aqueous chambers are on an exterior of the particles and a second set of aqueous chambers are on an interior of the particles, wherein lipid membranes on the first set of aqueous chambers are configured to degrade before the lipid membranes on the second set of aqueous chambers. more than two stacked biotextile layers made of collagen and joined together; and a bioabsorbable carrier matrix comprising multivesicular liposomes attached to at least one of the biotextile layers, the multivesicular liposomes comprising an active agent, wherein the multivesicular liposomes comprise a plurality of particles each having a plurality of non-concentric internally aqueous chambers each surrounded by a lipid membrane, at least one of the aqueous chambers and the lipid membrane containing the active agent, wherein the carrier matrix is attached to the biotextile layer at a plurality of discrete attachment sites, and wherein a first set of the aqueous chambers are on an exterior of the particles and a second set of aqueous chambers are on an interior of the particles, wherein lipid membranes on the first set of aqueous chambers are configured to degrade before the lipid membranes on the second set of aqueous chambers.
A dual wall liner (300; 400) for a gas turbine engine, comprising: a shell having a first side and a second side; a panel contacting the shell, the panel at least partially defining a hot gas path through which a hot gas flows, wherein the first side of the shell faces the panel; wherein the shell includes a thermal barrier coating, wherein the panel is coupled to the shell, the dual wall liner (300; 400) further comprising a panel stud coupling the panel to the shell, characterised in that the TBC is disposed on the first side of the shell, wherein the TBC surrounds the panel stud. a shell having a first side and a second side; a panel contacting the shell, the panel at least partially defining a hot gas path through which a hot gas flows, wherein the first side of the shell faces the panel; wherein the shell includes a thermal barrier coating, wherein the panel is coupled to the shell, the dual wall liner (300; 400) further comprising a panel stud coupling the panel to the shell, characterised in that the TBC is disposed on the first side of the shell, wherein the TBC surrounds the panel stud.
Method for determining the loading of a tyre mounted on a vehicle and running along the ground, said tyre being equipped with a sensor configured to acquire a measurement signal representative of the change in curvature of the tyre as it runs along the ground, the method comprising the following steps: - the acquisition, by the sensor of a measurement signal representative of the change in curvature of the tyre during running, - the obtaining of a measurement of the internal pressure of the tyre, - the determination, from the measurement signal, of measurement data comprising a first parameter representative of a length of a contact patch in contact with the ground during a revolution of the wheel bearing the tyre, Characterized in that the method comprises the following steps: - the obtaining of a firmness factor representative of a condition of firmness of the ground such as loose or hard, which is derived from measurements taken while the tyre is rolling over said ground, - the determination of the loading of the tyre as a function of the first parameter, of the firmness factor and of the internal pressure of the tyre. - the acquisition, by the sensor of a measurement signal representative of the change in curvature of the tyre during running, - the obtaining of a measurement of the internal pressure of the tyre, - the determination, from the measurement signal, of measurement data comprising a first parameter representative of a length of a contact patch in contact with the ground during a revolution of the wheel bearing the tyre, - the obtaining of a firmness factor representative of a condition of firmness of the ground such as loose or hard, which is derived from measurements taken while the tyre is rolling over said ground, - the determination of the loading of the tyre as a function of the first parameter, of the firmness factor and of the internal pressure of the tyre.
Method for shredding sheets (2.1, 2.2,...2.n), preferably sheets of paper, which are in a stack, said method comprising the following method steps: - placing a stack on a support, - grasping the sheets 2.1, 2.2,...2.n) individually from the stack through a pull-through opening in the support whilst forming a sheet loop, - conveying the individual sheets (2.1, 2.2,...2.n) successively towards a cutting system, and - cutting up the sheets (2.1, 2.2,...2.n) into particles using the cutting system, characterised in that - during formation of the loop, the sheets (2.1, 2.2,...2.n) are merely deformed elastically and thus reversibly, - each sheet loop is opened, forming a free sheet end, before it reaches the cutting system, and - as the sheet-conveying process continues, the sheets (2.1, 2.2...2.n) are introduced into the cutting system such that the sheet ends are at the front, - the sheet ends being grasped by the cutting system and pulled into the cutting system such that, when unfolded, each of the sheets (2.1, 2.2...2.n) is cut up over its entire length. - placing a stack on a support, - grasping the sheets 2.1, 2.2,...2.n) individually from the stack through a pull-through opening in the support whilst forming a sheet loop, - conveying the individual sheets (2.1, 2.2,...2.n) successively towards a cutting system, and - cutting up the sheets (2.1, 2.2,...2.n) into particles using the cutting system, - during formation of the loop, the sheets (2.1, 2.2,...2.n) are merely deformed elastically and thus reversibly, - each sheet loop is opened, forming a free sheet end, before it reaches the cutting system, and - as the sheet-conveying process continues, the sheets (2.1, 2.2...2.n) are introduced into the cutting system such that the sheet ends are at the front, - the sheet ends being grasped by the cutting system and pulled into the cutting system such that, when unfolded, each of the sheets (2.1, 2.2...2.n) is cut up over its entire length.
A terminal box attached to a back surface of a solar cell module, the terminal box comprising: a bottom wall facing the back surface of the solar cell module; a top wall facing the bottom wall; side walls; and a housing space defined by the bottom wall, the top wall and the side walls to accommodate a component to be mounted, characterized in that the bottom wall includes a plurality of limiting walls formed in a periphery of the bottom wall to project toward the solar cell module and formed separately from one another with a gap between two adjacent limiting walls, and at least one communication opening for allowing a charging space defined by the limiting walls and the bottom wall to communicate with the housing space, that the gap allows the charging space to communicate with external space of the limiting walls, and that the gap is formed at least in a region of the charging space farthest from the communication opening. a bottom wall facing the back surface of the solar cell module; a top wall facing the bottom wall; side walls; and a housing space defined by the bottom wall, the top wall and the side walls to accommodate a component to be mounted, that the bottom wall includes a plurality of limiting walls formed in a periphery of the bottom wall to project toward the solar cell module and formed separately from one another with a gap between two adjacent limiting walls, and at least one communication opening for allowing a charging space defined by the limiting walls and the bottom wall to communicate with the housing space, that the gap allows the charging space to communicate with external space of the limiting walls, and that the gap is formed at least in a region of the charging space farthest from the communication opening.
A lighting unit comprising: one or more light sources (230a, 230b), each of the one or more light sources being at least partially surrounded by a reflector (235a, 235b), wherein said reflector is an IES Type V optic, wherein the reflector is configured to direct light towards a surface; a housing at least partially enclosing each of the one or more light sources and the reflector; and a high-mast support configured to support the housing containing each of the one or more light sources and the reflector above the surface; characterized in that: the light sources are light emitting plasma, LEP, light sources; wherein said reflector is formed from a plurality of individual facets held or pressed together mechanically in a predetermined configuration between two or more support members; the lighting unit further comprising one or more controllers configured to control a function of each of the one or more LEP light sources. one or more light sources (230a, 230b), each of the one or more light sources being at least partially surrounded by a reflector (235a, 235b), wherein said reflector is an IES Type V optic, wherein the reflector is configured to direct light towards a surface; a housing at least partially enclosing each of the one or more light sources and the reflector; and a high-mast support configured to support the housing containing each of the one or more light sources and the reflector above the surface; characterized in that: the light sources are light emitting plasma, LEP, light sources; wherein said reflector is formed from a plurality of individual facets held or pressed together mechanically in a predetermined configuration between two or more support members; the lighting unit further comprising one or more controllers configured to control a function of each of the one or more LEP light sources. the light sources are light emitting plasma, LEP, light sources; wherein said reflector is formed from a plurality of individual facets held or pressed together mechanically in a predetermined configuration between two or more support members; the lighting unit further comprising one or more controllers configured to control a function of each of the one or more LEP light sources.
A greenhouse comprising at least one gutter section and a roof extending from said gutter section, which roof comprises a ridge section as well as spaced-apart glazing bars which are connected to an edge of the gutter section near one end and to the ridge section near the other end, whilst panes are provided between adjacent glazing bars, which panes are supported in rebates in the glazing bars, in a rebate in the gutter section and between two flanges (6, 7) arranged one above the other of the ridge section, characterised in that a pressure-distributing element is provided between the flanges (6, 7) of the ridge section, at least substantially in abutment with said flanges (6, 7) and with a web of the ridge section that interconnects the flanges (6, 7), wherein the pressure-distributing element comprises at least one spring tongue which extends inward from a part of the pressure-distributing element that abuts against one of the flanges (6, 7).
A method for dyeing keratinous material, in particular human hair, comprising the following steps: - applying a coloring agent (a) to the keratinous material, agent (a) containing: at least one amino-functionalized silicone polymer, and at least one dyeing compound from the group of inorganic and/or organic pigments, and optionally at least one film-forming polymer which is different from, - applying a post-treatment agent (b) to the keratinous material, agent (b) having a pH of 1.5 to 5.5 and containing: water, and at least one acid, and optionally at least one film-forming polymer, with the proviso that at least one of the agents (a) and/or (b) contains at least one film-forming polymer, characterized in that first agent (a) is applied, then agent (b) is applied, the period of time between the application of agents (a) and (b) being at most 24 hours. - applying a coloring agent (a) to the keratinous material, agent (a) containing: at least one amino-functionalized silicone polymer, and at least one dyeing compound from the group of inorganic and/or organic pigments, and optionally at least one film-forming polymer which is different from, at least one amino-functionalized silicone polymer, and at least one dyeing compound from the group of inorganic and/or organic pigments, and optionally at least one film-forming polymer which is different from, - applying a post-treatment agent (b) to the keratinous material, agent (b) having a pH of 1.5 to 5.5 and containing: water, and at least one acid, and optionally at least one film-forming polymer, at least one acid, and optionally at least one film-forming polymer, with the proviso that at least one of the agents (a) and/or (b) contains at least one film-forming polymer, characterized in that first agent (a) is applied, then agent (b) is applied, the period of time between the application of agents (a) and (b) being at most 24 hours.