mhurhangee/ep-ind-claims huggingface dataset:
Cookware item comprising a metal supporting member having a concave inner face intended to be arranged facing the food liable to be introduced into said cookware and a convex outer face intended to be arranged towards the heat source, said inner face being coated successively from the supporting member with a hard base and a non-stick coating covering said hard base, characterised in that: - the hard base is a discontinuous enamel layer in the form of a superficial dispersion of enamel drops distributed homogeneously on the inner face of said cookware, with a rate of coverage of the inner face between 40% and 80%, a surface density between 300 drops/mm 2, and 2000 drops/mm 2 and a drop size between 2 μm and 50 μm, and - said non-stick coating is a vitreous type coating in the form of a continuous film having a thickness of at least 10 μm and consisting of a sol-gel material comprising a matrix of at least one metal polyalkoxylate and at least 5% by weight with respect to the total weight of the coating of at least one metal oxide dispersed in said matrix. - the hard base is a discontinuous enamel layer in the form of a superficial dispersion of enamel drops distributed homogeneously on the inner face of said cookware, with a rate of coverage of the inner face between 40% and 80%, a surface density between 300 drops/mm 2, and 2000 drops/mm 2 and a drop size between 2 μm and 50 μm, and - said non-stick coating is a vitreous type coating in the form of a continuous film having a thickness of at least 10 μm and consisting of a sol-gel material comprising a matrix of at least one metal polyalkoxylate and at least 5% by weight with respect to the total weight of the coating of at least one metal oxide dispersed in said matrix.
A communication unit (RBS1, MT1) for use in a wireless communication system operating in a first frequency band, said communication unit (RBS1, MT1) comprising a receiver unit for processing a received signal in the first frequency band and a signal detector arranged to receive the processed signal from the receiver unit and detect a wanted signal, wherein said communication unit (RBS1, MT1) further comprises interference detection circuitry (45, 51) arranged to detect the presence of an interfering pulse and feeding information about the presence of an interfering pulse to the signal detector, characterised in comprising a directional coupler (41, 53), wherein the directional coupler (41, 53) is arranged to direct a fraction of the signal received by the communication unit to the interference detection circuitry (45, 51); a signal to noise ratio calculator arranged to receive the wanted signal from the signal detector and calculate a signal to noise ratio of the wanted signal; and a noise/ interfering pulse calculator arranged to receive the signal to noise ratio from the calculator and information about the presence of an interfering pulse from the interference detection circuitry (45, 51) and to predict a relationship between the signal to noise ratio and the interfering pulse, and to forward information about said relationship to the detector, wherein the signal detector is arranged to modify its detection algorithm based on the received information.
A data transmission method, wherein the data transmission method comprises: receiving, by a session management network element, a request message from a mobility management network element, wherein the request message comprises an identifier of a mobile local area network, MLAN, associated with a session of a terminal; obtaining, by the session management network element, a label of the MLAN based on the identifier of the MLAN; and generating, by the session management network element, an uplink data forwarding rule based on the label of the MLAN and information about an uplink path corresponding to the session, wherein the uplink data forwarding rule comprises the label of the MLAN and the information about the uplink path corresponding to the session; and sending, by the session management network element, the uplink data forwarding rule to a user plane network element, wherein the uplink data forwarding rule is used to instruct the user plane network element to forward, by using routing information corresponding to the label of the MLAN, uplink data received on the uplink path. receiving, by a session management network element, a request message from a mobility management network element, wherein the request message comprises an identifier of a mobile local area network, MLAN, associated with a session of a terminal; obtaining, by the session management network element, a label of the MLAN based on the identifier of the MLAN; and generating, by the session management network element, an uplink data forwarding rule based on the label of the MLAN and information about an uplink path corresponding to the session, wherein the uplink data forwarding rule comprises the label of the MLAN and the information about the uplink path corresponding to the session; and sending, by the session management network element, the uplink data forwarding rule to a user plane network element, wherein the uplink data forwarding rule is used to instruct the user plane network element to forward, by using routing information corresponding to the label of the MLAN, uplink data received on the uplink path.
Method for the enrichment of nucleic acids from a nucleic acid-containing sample, said sample comprising, consisting of, or being the product of processing a fluid or tissue directly removable from the body, said method comprising the following steps in the order indicated: (i) contacting the sample with a proteinase at a pH of at least 8 and excluding chaotropic salts and detergents; (ii) initiating binding of nucleic acids of the sample to a surface of a sample carrier by adjusting a pH to a value less than 8; and then iii) washing the sample carrier; (iv) drying the sample carrier with the bound sample; and (v) performing PCR on the same sample carrier, in particular a quantitative real-time polymerase chain reaction; wherein the surface of the sample carrier is brought into contact with the sample before or after step i); where the sample carrier comprises or consists of a polyolefin, in particular selectable from the group of polyethylene, polypropylene, polycarbonate, polybutylene and/or copolymers thereof. (i) contacting the sample with a proteinase at a pH of at least 8 and excluding chaotropic salts and detergents; (ii) initiating binding of nucleic acids of the sample to a surface of a sample carrier by adjusting a pH to a value less than 8; and then iii) washing the sample carrier; (iv) drying the sample carrier with the bound sample; and (v) performing PCR on the same sample carrier, in particular a quantitative real-time polymerase chain reaction; wherein the surface of the sample carrier is brought into contact with the sample before or after step i); where the sample carrier comprises or consists of a polyolefin, in particular selectable from the group of polyethylene, polypropylene, polycarbonate, polybutylene and/or copolymers thereof.
A laundry washing and drying machine (1; 61; 71) comprising: - an outer casing; - a tub external to a drum suitable for receiving laundry to be washed and/or dried; - an air treating system connecting an air outlet hole of said tub to an air inlet hole of said tub for circulating hot air through said tub, said air treating system comprising: - a condensing device for dehumidifying moist air coming from said air outlet hole; - an air heating device for heating dehumidified air coming from said condensing device and producing hot air to be conveyed to said inlet hole; - an air circulating device (14; 114; 214) for forcing air through said condensing device and said heating device; wherein said air circulating device (14; 114; 214) generates: - a first air stream for circulating said hot air through said tub for drying said laundry during a drying cycle of the machine; - a second air stream, different from said first air stream, for suction of liquid from said outlet hole for cleaning said condensing device (14; 114; 214) during a condenser cleaning cycle of the machine, characterized in that said second air stream has a different volumetric flow rate with respect to said first air stream. - an outer casing; - a tub external to a drum suitable for receiving laundry to be washed and/or dried; - an air treating system connecting an air outlet hole of said tub to an air inlet hole of said tub for circulating hot air through said tub, said air treating system comprising: - a condensing device for dehumidifying moist air coming from said air outlet hole; - an air heating device for heating dehumidified air coming from said condensing device and producing hot air to be conveyed to said inlet hole; - an air circulating device (14; 114; 214) for forcing air through said condensing device and said heating device; - a first air stream for circulating said hot air through said tub for drying said laundry during a drying cycle of the machine; - a second air stream, different from said first air stream, for suction of liquid from said outlet hole for cleaning said condensing device (14; 114; 214) during a condenser cleaning cycle of the machine,
A key for a lock cylinder with a shaft, with a locking recess in the shaft for receiving a scanning body of the lock cylinder and with a support surface (19, 20) of the locking recess for support of the scanning body and lock cylinder for the key with a core rotatable in a housing, with a locking channel in the core for receiving the shaft of the key, with a scanning body, which is guided inclined to a plane of the locking channel, with a core bore arranged in the core for the scanning body and with a section of a side wall of the locking channel arranged parallel to the plane, characterized in that one subregion of the locking recess is arranged in a support rib protruding in a raised manner from a surface and the other subregion is arranged in the surface and that the locking recess has a first support surface and a second support surface arranged inclined to the first support surface in the support rib for support of the scanning body and the axis of symmetry of the core bore is directed at a corner region of a groove arranged in the side wall for the support rib and a surface of the side wall arranged parallel to the plane of the locking channel.
A solid-state imaging device comprising: a column processing section that includes a low-level bit latching section, a high-level bit ripple counting section, and a bit inconsistency prevention section, wherein the low-level bit latching section is configured to receive a comparator output from a comparator and a count output from a Gray code counter, and the low-level bit latching section latches a count value, the high-level bit ripple counting section is configured to receive a latch output from a low-level bit circuit nearest to a high-level side of the low-level bit latching section and to perform a count operation, and the bit inconsistency prevention section configured to prevent bit inconsistency between the low-level bit circuit nearest to the high-level side of the low-level bit latching section and a high-level bit ripple counter circuit nearest to a low-level side of the high-level bit ripple counting section, by stopping the output of the low-level bit latch circuit which is farthest to the high level side of the low-level bit latching section for a predetermined period of time. a column processing section that includes a low-level bit latching section, a high-level bit ripple counting section, and a bit inconsistency prevention section, wherein the low-level bit latching section is configured to receive a comparator output from a comparator and a count output from a Gray code counter, and the low-level bit latching section latches a count value, the high-level bit ripple counting section is configured to receive a latch output from a low-level bit circuit nearest to a high-level side of the low-level bit latching section and to perform a count operation, and the bit inconsistency prevention section configured to prevent bit inconsistency between the low-level bit circuit nearest to the high-level side of the low-level bit latching section and a high-level bit ripple counter circuit nearest to a low-level side of the high-level bit ripple counting section, by stopping the output of the low-level bit latch circuit which is farthest to the high level side of the low-level bit latching section for a predetermined period of time.
A method for producing a carbon nanotube-containing composition for synthesizing carbon nanotube aggregates, the method comprising: introducing a ferrocene derivative, a sulfur compound, a carbon source, and a carrier gas into a gas phase flowing in a heating furnace within a temperature range of higher than 1,200°C to 1,800°C, wherein the carbon source substantially consists of benzene or toluene, the carrier gas includes hydrogen in a range of 10% by volume to 85% by volume, the carrier gas has a linear velocity in a range of 500 cm/min to 2,200 cm/min, and sulfur atoms contained in the sulfur compound are included in a range of 0.15 mol to 0.22 mol per 1 mol of iron atoms included in the ferrocene derivative. introducing a ferrocene derivative, a sulfur compound, a carbon source, and a carrier gas into a gas phase flowing in a heating furnace within a temperature range of higher than 1,200°C to 1,800°C, wherein the carbon source substantially consists of benzene or toluene, the carrier gas includes hydrogen in a range of 10% by volume to 85% by volume, the carrier gas has a linear velocity in a range of 500 cm/min to 2,200 cm/min, and sulfur atoms contained in the sulfur compound are included in a range of 0.15 mol to 0.22 mol per 1 mol of iron atoms included in the ferrocene derivative.
A medical device comprising: a sleeve having at least one slot; and a flexible collar having a rigid body comprising a cylindrical outer surface and a cylindrical inner surface concentrically aligned with respect to a common longitudinal axis, a top surface, and a bottom surface, the inner surface defining a bore from the top surface to the bottom surface, and each of the top and bottom surfaces (34, 36) having a pathway confined to a respective plane and circumscribing a respective edge of the inner surface, characterized in that the flexible collar further comprises at least one radially expandable and automatically compressible accordion region having a plurality of pivots, at least two of the pivots being radially spaced apart from the longitudinal axis at different distances, and at least one guide pin extending radially outwardly from the outer surface and engaging the at least one slot when the flexible collar is inserted into the sleeve. a sleeve having at least one slot; and a flexible collar having a rigid body comprising a cylindrical outer surface and a cylindrical inner surface concentrically aligned with respect to a common longitudinal axis, a top surface, and a bottom surface, the inner surface defining a bore from the top surface to the bottom surface, and each of the top and bottom surfaces (34, 36) having a pathway confined to a respective plane and circumscribing a respective edge of the inner surface, characterized in that the flexible collar further comprises at least one radially expandable and automatically compressible accordion region having a plurality of pivots, at least two of the pivots being radially spaced apart from the longitudinal axis at different distances, and at least one guide pin extending radially outwardly from the outer surface and engaging the at least one slot when the flexible collar is inserted into the sleeve.
A remote station, i.e., a mobile station, comprising: a data buffer for receiving data for transmission; a message generator for generating an access request message when the data buffer contains data for transmission; a receiver for receiving one or more individual grant channels and one or more common grant channels from a base station; a message decoder for decoding the access grant directed to the remote station, the access grant comprising an individual grant directed on one of the one or more individual grant channels or a common grant on one of the one or more common grant channels monitored and a transmitter for transmitting the access request message and for transmitting a portion of data from the data buffer in response to a decoded access grant; and wherein the transmitter further transmits a limited portion of the data in the data buffer autonomously, irrespective of whether an access grant has been received, the remote station being configured to monitor the one or more individual grant channels and the one or more common grant channels received from the base station for the access grant and wherein the remote station is further configured to monitor a common acknowledgement channel for commands directed to the remote station based on a previous transmission of a portion of data from the data buffer, said commands including an ACK-and-Continue command; and wherein in response to the ACK-and-Continue command, the transmitter is configured to transmit an additional portion of data from the data buffer in response to a previously decoded access grant. a data buffer for receiving data for transmission; a message generator for generating an access request message when the data buffer contains data for transmission; a receiver for receiving one or more individual grant channels and one or more common grant channels from a base station; a message decoder for decoding the access grant directed to the remote station, the access grant comprising an individual grant directed on one of the one or more individual grant channels or a common grant on one of the one or more common grant channels monitored and a transmitter for transmitting the access request message and for transmitting a portion of data from the data buffer in response to a decoded access grant; and wherein the transmitter further transmits a limited portion of the data in the data buffer autonomously, irrespective of whether an access grant has been received, the remote station being configured to monitor the one or more individual grant channels and the one or more common grant channels received from the base station for the access grant and wherein the remote station is further configured to monitor a common acknowledgement channel for commands directed to the remote station based on a previous transmission of a portion of data from the data buffer, said commands including an ACK-and-Continue command; and wherein in response to the ACK-and-Continue command, the transmitter is configured to transmit an additional portion of data from the data buffer in response to a previously decoded access grant.
A process for removing acid gases from a hydrocarbonaceous fluid stream or an oxygen-comprising fluid stream in which the fluid stream is contacted with an aqueous solution which comprises less that 5% by weight of inorganic basic salts and comprises (i) 2 to 5 kmol/m 3 of at least one alkanolamine and (ii) 0.5 to 2 kmol/m 3 of at least one metal salt of an aminocarboxylic acid is a N-mono-C 1 -C 4 -alkylaminocarboxylic acid or a N,N-di-C 1 -C 4 -alkylaminocarboxylic acid; and the acid gas components are released from the absorption medium loaded with the acid gas components in a regeneration step, a generated absorption medium is being obtained.
A process for the manufacture of thermally expandable thermoplastic microspheres comprising a thermoplastic shell encapsulating a blowing agent, the process comprising: - providing a mixture of monomeric materials suitable for polymerisation to form a thermoplastic polymer and at least one blowing agent, - providing a colloidal silica that is surface-modified with at least hydrophobic organosilane groups, wherein the colloidal silica that is surface-modified with at least hydrophobic organosilane groups is further surface-modified with one or more hydrophilic organosilane groups; - contacting the mixture of one or more monomers and at least one blowing agent with the surface-modified colloidal silica and forming an emulsion; and - polymerising to form an aqueous slurry of thermally expandable thermoplastic microspheres. - providing a mixture of monomeric materials suitable for polymerisation to form a thermoplastic polymer and at least one blowing agent, - providing a colloidal silica that is surface-modified with at least hydrophobic organosilane groups, wherein the colloidal silica that is surface-modified with at least hydrophobic organosilane groups is further surface-modified with one or more hydrophilic organosilane groups; - contacting the mixture of one or more monomers and at least one blowing agent with the surface-modified colloidal silica and forming an emulsion; and - polymerising to form an aqueous slurry of thermally expandable thermoplastic microspheres.
A semiconductor device comprising: a substrate; and either: a buffer layer on the substrate; a semiconductor film on the buffer layer configured to create a channel in the buffer layer; or an active region in a semiconductor film; the semiconductor device further comprising: a source electrode (108; 208) contacting the semiconductor film; a drain electrode (110; 210) contacting the semiconductor film, wherein an active region is between the source electrode and the drain electrode; a gate electrode configured to modulate the channel in the active region; a first passivation film (104; 106; 114) over the semiconductor film; an encapsulation film (124; 224) over the first passivation film, wherein the encapsulation film (124; 224) is from 0.5 μm to 5 μm thick; and a shield wrap (130; 230) on the encapsulation film electrically connected to the source electrode (108; 208), wherein the shield wrap (130; 230) covers a majority of the active region. a substrate; and either: a buffer layer on the substrate; a semiconductor film on the buffer layer configured to create a channel in the buffer layer; or an active region in a semiconductor film; the semiconductor device further comprising: a buffer layer on the substrate; a semiconductor film on the buffer layer configured to create a channel in the buffer layer; or an active region in a semiconductor film; the semiconductor device further comprising: a source electrode (108; 208) contacting the semiconductor film; a drain electrode (110; 210) contacting the semiconductor film, wherein an active region is between the source electrode and the drain electrode; a gate electrode configured to modulate the channel in the active region; a first passivation film (104; 106; 114) over the semiconductor film; an encapsulation film (124; 224) over the first passivation film, wherein the encapsulation film (124; 224) is from 0.5 μm to 5 μm thick; and a shield wrap (130; 230) on the encapsulation film electrically connected to the source electrode (108; 208), wherein the shield wrap (130; 230) covers a majority of the active region.