mhurhangee/ep-ind-claims huggingface dataset:
A network-based communication method, comprising: a source network apparatus (10, 13) receiving a stream of information-bearing packets, the stream comprising gaps between at least some of the information-bearing packets; the source network apparatus generating one or more spacer packets and generating an augmented stream of packets, the augmented stream of packets comprising the information-bearing packets and further comprising spacer packets located within at least some of said gaps; the source network apparatus outputting the augmented stream of packets to a network link from an output of the source network apparatus; the augmented stream of packets travelling through one or more network links between the source network apparatus and a destination network apparatus; the destination network apparatus receiving the augmented stream of packets at an input of the destination network apparatus; the destination network apparatus determining whether each received packet is an information-bearing packet or a spacer packet; the destination network apparatus outputting or processing the received information-bearing packets, or outputting or processing information from the received information-bearing packets; and the destination network apparatus discarding the received spacer packets; characterised by: the source network apparatus generating the augmented stream of packets such that the spacing of the information-bearing packets in the augmented stream is the same as the spacing of the corresponding information-bearing packets in the received stream of information-bearing packets. a source network apparatus (10, 13) receiving a stream of information-bearing packets, the stream comprising gaps between at least some of the information-bearing packets; the source network apparatus generating one or more spacer packets and generating an augmented stream of packets, the augmented stream of packets comprising the information-bearing packets and further comprising spacer packets located within at least some of said gaps; the source network apparatus outputting the augmented stream of packets to a network link from an output of the source network apparatus; the augmented stream of packets travelling through one or more network links between the source network apparatus and a destination network apparatus; the destination network apparatus receiving the augmented stream of packets at an input of the destination network apparatus; the destination network apparatus determining whether each received packet is an information-bearing packet or a spacer packet; the destination network apparatus outputting or processing the received information-bearing packets, or outputting or processing information from the received information-bearing packets; and the destination network apparatus discarding the received spacer packets;
A method for manufacturing a functionalized silica product, the method comprising the steps of: providing a hydrophobated high surface area silica in a rotary dryer; introducing a polymer cement to the rotary dryer, the polymer cement having a solution polymer at least partially dissolved in a solvent, wherein the solution polymer is a solution styrene butadiene rubber; and heating the rotary dryer to drive off the solvent, wherein a functionalized silica product is formed with particles of the hydrophobated silica having a coating of the solution polymer, wherein a ratio of the hydrophobated silica to the solution polymer is from 4/1 to 100/1, wherein the hydrophobated silica includes a high surface area silica having a BET specific surface area greater than 200 m 2 /g, and the particles are loosely agglomerated in the form of one of a friable crumb and a powder. providing a hydrophobated high surface area silica in a rotary dryer; introducing a polymer cement to the rotary dryer, the polymer cement having a solution polymer at least partially dissolved in a solvent, wherein the solution polymer is a solution styrene butadiene rubber; and heating the rotary dryer to drive off the solvent, wherein a functionalized silica product is formed with particles of the hydrophobated silica having a coating of the solution polymer, wherein a ratio of the hydrophobated silica to the solution polymer is from 4/1 to 100/1, wherein the hydrophobated silica includes a high surface area silica having a BET specific surface area greater than 200 m 2 /g, and the particles are loosely agglomerated in the form of one of a friable crumb and a powder.
Trap housing comprising a base member and a cover member adapted to be releasably connected to the base member by cooperating first (46, 48) and second (60, 62) locking means provided on the base member and the cover member, respectively, the first locking means (46, 48) being formed with a first positive locking surface region and the second locking means (60, 62) being formed with a second positive locking surface region positively cooperating with the first positive locking means surface region such that the two positive locking means can be engaged and disengaged by elastic deformation of at least one of the locking means, the second locking means (60, 62) comprises two resilient arms (56, 58) each carrying a hook portion (60, 62), the first and the second locking means being arranged in the vicinity of one of a plurality of sidewalls (20, 22) and end walls (24, 26) cooperating with a bottom wall to define a trough shaped base member, key means being provided to elastically deform at least one of the first and second positive locking means such that they become disengaged, characterized in that the key means has a shaft portion fitting into a key hole of an end wall of the trough so as to provide a rotational bearing for the key means on the housing, the resilient arms of the second locking means of rectangular cross section being carried by a lower wall of a rectangular frame portion formed integral with a main wall of the cover member.
A method for receiving a signal from an access point, AP, by a station, STA, in a wireless communication system, the method comprising: receiving a Restricted Access Window, RAW, Parameter Set, RPS, element comprising a RAW Assignment field, the RAW Assignment field having a plurality of subfields; and checking, in the RAW Assignment field, first information indicating whether or not the RAW Assignment field is related to a periodic RAW and second information indicating whether or not the RAW Assignment field is related to AP Power Management, AP PM, wherein, when the RAW is related to AP PM, the RAW assignment field has a reduced number of subfields and the STA acquires information related to a duration of the RAW from at least one subfields of the RAW Assignment field. receiving a Restricted Access Window, RAW, Parameter Set, RPS, element comprising a RAW Assignment field, the RAW Assignment field having a plurality of subfields; and checking, in the RAW Assignment field, first information indicating whether or not the RAW Assignment field is related to a periodic RAW and second information indicating whether or not the RAW Assignment field is related to AP Power Management, AP PM, wherein, when the RAW is related to AP PM, the RAW assignment field has a reduced number of subfields and the STA acquires information related to a duration of the RAW from at least one subfields of the RAW Assignment field.
An optic signal receiver comprising an optic signal detection unit, an estimation unit, and a feedback control unit to provide a detector control signal to control operation of the optic signal detection unit, wherein: - the optic signal detection unit comprises an input module, a mode splitting module and a signal detection module, wherein the input module is to modify a received optic input signal into a multi-mode optic output signal ( L̃), the mode splitting module is configured to branch the multi-mode optic output signal ( L̃) off into multiple reduced mode optic signals ( L 1,L 2,...,L n) and the signal detection module is configured to issue a detection signal, the signal detection module comprising a plurality of signal detection sections that are each configured to measure an intensity data of a respective one of the reduced mode optic signals and to provide a respective indicator ( I 1,I 2,...,I n) indicative of the measured intensity data as a component of the detection signal; - the feedback control unit being configured to minimize a difference between the detection signal and a detection reference signal ( I d) with the detector control signal; - characterized in that the estimation unit is configured to issue a further input signal (C IS) to the feedback control unit based on a model of the optic signal detection unit, and in that the input module is an adaptive optic module that is configured to modify the received optic input signal under control of the detector control signal. - the optic signal detection unit comprises an input module, a mode splitting module and a signal detection module, wherein the input module is to modify a received optic input signal into a multi-mode optic output signal ( L̃), the mode splitting module is configured to branch the multi-mode optic output signal ( L̃) off into multiple reduced mode optic signals ( L 1,L 2,...,L n) and the signal detection module is configured to issue a detection signal, the signal detection module comprising a plurality of signal detection sections that are each configured to measure an intensity data of a respective one of the reduced mode optic signals and to provide a respective indicator ( I 1,I 2,...,I n) indicative of the measured intensity data as a component of the detection signal; - the feedback control unit being configured to minimize a difference between the detection signal and a detection reference signal ( I d) with the detector control signal; - characterized in that the estimation unit is configured to issue a further input signal (C IS) to the feedback control unit based on a model of the optic signal detection unit, and in that the input module is an adaptive optic module that is configured to modify the received optic input signal under control of the detector control signal.
A computer-implemented method comprising: launching a chat bot diagnostic tool, wherein the launching presents a graphical user interface configured to display diagnostic data for debugging a chat bot; tracing data traffic between the chat bot and a data channel of an application or service during run-time execution of the chat bot wherein the application or service provides chat bot functionality; filtering the traced data traffic to identify a chat bot interaction of the chat bot within the data channel, wherein the filtering comprises: identifying message activity during the chat bot interaction, and identifying a conversational task state of the chat bot during the chat bot interaction wherein the conversational task state of the chat bot comprises state information related to operation of the chat bot during the chat bot interaction; communicating the filtered data traffic to the chat bot diagnostic tool; and emulating, based on the filtered data traffic, the message activity and the conversational task state of the chat bot in a debugging data visualization presented through the graphical user interface of the chat bot diagnostic tool. launching a chat bot diagnostic tool, wherein the launching presents a graphical user interface configured to display diagnostic data for debugging a chat bot; tracing data traffic between the chat bot and a data channel of an application or service during run-time execution of the chat bot wherein the application or service provides chat bot functionality; filtering the traced data traffic to identify a chat bot interaction of the chat bot within the data channel, wherein the filtering comprises: identifying message activity during the chat bot interaction, and identifying a conversational task state of the chat bot during the chat bot interaction wherein the conversational task state of the chat bot comprises state information related to operation of the chat bot during the chat bot interaction; identifying message activity during the chat bot interaction, and identifying a conversational task state of the chat bot during the chat bot interaction wherein the conversational task state of the chat bot comprises state information related to operation of the chat bot during the chat bot interaction; communicating the filtered data traffic to the chat bot diagnostic tool; and emulating, based on the filtered data traffic, the message activity and the conversational task state of the chat bot in a debugging data visualization presented through the graphical user interface of the chat bot diagnostic tool.
A touch panel comprising: a substrate including a first active area and a second flexible active area extended from the first active area; a sensing electrode disposed indirectly on the substrate to sense a position of an input device, the sensing electrode comprising a first sensing electrode disposed in the first active area and a second sensing electrode disposed in the second active area of the substrate; the touch panel being characterized in that a protective layer is disposed in the second active area of the substrate, wherein the protective layer comprises a first protective layer and a second protective layer, wherein the first and second protective layers (401, 402) make direct contact with the second sensing electrode, wherein the first protective layer is provided on a top surface of the second sensing electrode, and the second protective layer is provided between a top surface of the substrate of the second active area and a bottom surface of the second sensing electrode so that the top and bottom surfaces of the second sensing electrode are protected through the first and second protective layers (401, 402), wherein the first protective layer is index-matched with the sensing electrode by adjusting a refractive index. a substrate including a first active area and a second flexible active area extended from the first active area; a sensing electrode disposed indirectly on the substrate to sense a position of an input device, the sensing electrode comprising a first sensing electrode disposed in the first active area and a second sensing electrode disposed in the second active area of the substrate; the touch panel being characterized in that a protective layer is disposed in the second active area of the substrate, wherein the protective layer comprises a first protective layer and a second protective layer, wherein the first and second protective layers (401, 402) make direct contact with the second sensing electrode, wherein the first protective layer is provided on a top surface of the second sensing electrode, and the second protective layer is provided between a top surface of the substrate of the second active area and a bottom surface of the second sensing electrode so that the top and bottom surfaces of the second sensing electrode are protected through the first and second protective layers (401, 402), wherein the first protective layer is index-matched with the sensing electrode by adjusting a refractive index.
A method for manufacturing a non-pneumatic wheel, comprising: providing a first mold (8, 11); positioning inner and outer reinforcement bands (2, 3) in a substantially concentric relationship inside the first mold (8, 11); inserting material to form a polymer foam spacer into the mold and into a substantially annular space located between the inner and outer reinforcement bands (2, 3) so as to provide a casting that includes the spacer and the inner and outer reinforcement bands (2, 3); providing a second mold having at least one cavity for the molding of one or more features of the non-pneumatic wheel; placing the casting from said step of inserting into the second mold; and, introducing a matrix material into the second mold so as form one or more features of the non-pneumatic wheel. providing a first mold (8, 11); positioning inner and outer reinforcement bands (2, 3) in a substantially concentric relationship inside the first mold (8, 11); inserting material to form a polymer foam spacer into the mold and into a substantially annular space located between the inner and outer reinforcement bands (2, 3) so as to provide a casting that includes the spacer and the inner and outer reinforcement bands (2, 3); providing a second mold having at least one cavity for the molding of one or more features of the non-pneumatic wheel; placing the casting from said step of inserting into the second mold; and, introducing a matrix material into the second mold so as form one or more features of the non-pneumatic wheel.
A method for preparing viable cells, comprising: thawing a cryopreserved composition that includes viable cells and an aqueous cryopreservation medium, wherein the aqueous cryopreservation medium of the cryopreserved composition consists of dimethylsulfoxide at a concentration of 2% by weight, hydroxyethyl starch at a concentration of 6% by weight and water, to provide a thawed viable cell composition having the viable cells suspended in an aqueous liquid; and combining an aqueous liquid diluting medium with the thawed viable cell composition, preferably in a volume ratio of at least 2:1 and more preferably at least 5:1, to provide a diluted viable cell composition containing hydroxyethyl starch and dimethylsulfoxide, wherein the dimethylsulfoxide is present in the diluted viable cell composition at a concentration of 0.5% by weight or less. thawing a cryopreserved composition that includes viable cells and an aqueous cryopreservation medium, wherein the aqueous cryopreservation medium of the cryopreserved composition consists of dimethylsulfoxide at a concentration of 2% by weight, hydroxyethyl starch at a concentration of 6% by weight and water, to provide a thawed viable cell composition having the viable cells suspended in an aqueous liquid; and combining an aqueous liquid diluting medium with the thawed viable cell composition, preferably in a volume ratio of at least 2:1 and more preferably at least 5:1, to provide a diluted viable cell composition containing hydroxyethyl starch and dimethylsulfoxide, wherein the dimethylsulfoxide is present in the diluted viable cell composition at a concentration of 0.5% by weight or less.
An electronic device, comprising at least: a housing, comprising an inner surface and an outer surface provided opposite to each other; a mainboard, arranged on the inner surface; a conductive coil, arranged on the inner surface and integrally arranged with the housing, wherein the conductive coil comprises a winding portion, an outer connection terminal, and an inner connection terminal; in a radial direction of the winding portion, the mainboard is located at an outer side of the winding portion, the outer connection terminal is connected to the winding portion and is located at the outer side of the winding portion, the outer connection terminal is electrically connected to the mainboard, and the inner connection terminal is connected to the winding portion and is located at an inner side of the winding portion; and a conductive adapter, wherein the conductive adapter is electrically connected to the mainboard and the inner connection terminal, characterized in that a part of the conductive adapter exceeding the winding portion is bonded to the inner surface of the housing through a bonding member; the mainboard comprises an elastic piece; the conductive adapter comprises a contact; the contact is located on a side of the conductive adapter that is opposite a side of the conductive adapter that faces the bonding member; and the elastic piece is electrically connected to the contact. a housing, comprising an inner surface and an outer surface provided opposite to each other; a mainboard, arranged on the inner surface; a conductive coil, arranged on the inner surface and integrally arranged with the housing, wherein the conductive coil comprises a winding portion, an outer connection terminal, and an inner connection terminal; in a radial direction of the winding portion, the mainboard is located at an outer side of the winding portion, the outer connection terminal is connected to the winding portion and is located at the outer side of the winding portion, the outer connection terminal is electrically connected to the mainboard, and the inner connection terminal is connected to the winding portion and is located at an inner side of the winding portion; and a conductive adapter, wherein the conductive adapter is electrically connected to the mainboard and the inner connection terminal, characterized in that a part of the conductive adapter exceeding the winding portion is bonded to the inner surface of the housing through a bonding member; the mainboard comprises an elastic piece; the conductive adapter comprises a contact; the contact is located on a side of the conductive adapter that is opposite a side of the conductive adapter that faces the bonding member; and the elastic piece is electrically connected to the contact.
A machine for machining concave elements, of the type comprising a body extending along a concave line of extension in the form of a 'C' or 'U' and having a pair of mutually facing surfaces (E1, E2), the machine comprising: - one or more supporting members, each forming a respective housing seat for a concave element; - first movement means acting on the supporting members for moving the supporting members along a machining trajectory; - one or more drilling units configured to pierce the concave element at one of the mutually facing surfaces (E1, E2); each drilling unit comprising: - a head positioned along the machining trajectory in such a way as to engage the housing seats during a movement of the supporting members; - a tool connected to the head and extending along an axis of extension substantially perpendicular to the machining trajectory; - a supporting body connected to the head for supporting the head and extending along a direction perpendicular to the axis of extension; - second movement means configured for moving the head in a direction parallel to the axis of extension of the tool. - one or more supporting members, each forming a respective housing seat for a concave element; - first movement means acting on the supporting members for moving the supporting members along a machining trajectory; - one or more drilling units configured to pierce the concave element at one of the mutually facing surfaces (E1, E2); - a head positioned along the machining trajectory in such a way as to engage the housing seats during a movement of the supporting members; - a tool connected to the head and extending along an axis of extension substantially perpendicular to the machining trajectory; - a supporting body connected to the head for supporting the head and extending along a direction perpendicular to the axis of extension; - second movement means configured for moving the head in a direction parallel to the axis of extension of the tool.