mhurhangee/patent-ind-claim-en huggingface dataset:
A system for service setting and management of a Machine to Machine, M2M, terminal, characterized in that the system comprises a service definition management module , a service execution module and a service control presentation module , wherein: the service definition management module is configured to configure M2M service according to an access terminal, and divide the service into a service execution logic part and a service control presentation part; the service control presentation module is configured to receive the service control presentation part from the service definition management module to present, and send a control instruction to the service execution module according to a control presentation rule; and the service execution module is configured to receive the service execution logic part from the service definition management module , exchange data and information with an M2M terminal according to the control instruction sent by the service control presentation module, execute a specific service logic, and reserve related data for the service control presentation module to present. the service definition management module is configured to configure M2M service according to an access terminal, and divide the service into a service execution logic part and a service control presentation part; the service control presentation module is configured to receive the service control presentation part from the service definition management module to present, and send a control instruction to the service execution module according to a control presentation rule; and the service execution module is configured to receive the service execution logic part from the service definition management module , exchange data and information with an M2M terminal according to the control instruction sent by the service control presentation module, execute a specific service logic, and reserve related data for the service control presentation module to present.
A liquid ejection head comprising: a silicon substrate ; and an element , which is disposed on the silicon substrate, for generating energy that is utilized for ejecting a liquid, wherein a protective layer A containing a metal oxide is disposed on a first surface of the silicon substrate, wherein a structure containing an organic resin and constituting part of a liquid flow passage is disposed on the protective layer A, and wherein an intermediate layer A containing a silicon compound is disposed between the protective layer A and the structure, wherein the intermediate layer A is in direct contact with the structure and the protective layer A, characterised in that the silicon compound is a compound selected from the group consisting of SiC, SiOC, SiCN, SiOCN and the composition ratio of carbon atoms to the total of silicon atoms and the carbon atoms contained in the silicon compound is 15 atomic percent or more. a silicon substrate ; and an element , which is disposed on the silicon substrate, for generating energy that is utilized for ejecting a liquid, wherein a protective layer A containing a metal oxide is disposed on a first surface of the silicon substrate, wherein a structure containing an organic resin and constituting part of a liquid flow passage is disposed on the protective layer A, and wherein an intermediate layer A containing a silicon compound is disposed between the protective layer A and the structure, wherein the intermediate layer A is in direct contact with the structure and the protective layer A, characterised in that the silicon compound is a compound selected from the group consisting of SiC, SiOC, SiCN, SiOCN and the composition ratio of carbon atoms to the total of silicon atoms and the carbon atoms contained in the silicon compound is 15 atomic percent or more.
Method for averting a danger and/or for prompting the averting of a danger, wherein the method is performed by a control apparatus , and wherein the method comprises: - obtaining a plurality of pieces of sensor information; - determining , at least partially depending on the obtained pieces of sensor information, whether a danger exists; - transmitting and/or causing the transmitting (303-304) of a support offer request message if it is determined that the danger exists; - receiving and/or causing the receiving of at least one first support offer message from a first support apparatus in response to the support offer request message; - determining , at least partially depending on the received first support offer message, whether a first support measure of the first support apparatus is suitable for averting the danger; and - prompting (307-308) the first support measure if it is determined that the first support measure is suitable for averting the danger. - obtaining a plurality of pieces of sensor information; - determining , at least partially depending on the obtained pieces of sensor information, whether a danger exists; - transmitting and/or causing the transmitting (303-304) of a support offer request message if it is determined that the danger exists; - receiving and/or causing the receiving of at least one first support offer message from a first support apparatus in response to the support offer request message; - determining , at least partially depending on the received first support offer message, whether a first support measure of the first support apparatus is suitable for averting the danger; and - prompting (307-308) the first support measure if it is determined that the first support measure is suitable for averting the danger.
A method for ascertaining the temperature of a portion of a rope having a strength member formed mainly from synthetic fibers, the method characterized by steps of: a) forming the rope so that it includes at each of various distinct locations along the length of the rope and included within a centrally located creep tolerant rod dimensioned to fill out the centrally located space of the hollow braided rope at least one of several individual magnets ; b) next, using the rope in a certain application; c) next, while using the rope in the certain application, measuring a physical signal associated with at least one of the magnets that is included within the rope so as to obtain a measurement associated with the signal; d) identifying a temperature and/or temperature range by comparing the obtained measurement to previously obtained data identifying various temperature measurements and/or ranges of temperature measurements for various specific measurements of the same type of signal as measured in step (c) above. a) forming the rope so that it includes at each of various distinct locations along the length of the rope and included within a centrally located creep tolerant rod dimensioned to fill out the centrally located space of the hollow braided rope at least one of several individual magnets ; b) next, using the rope in a certain application; c) next, while using the rope in the certain application, measuring a physical signal associated with at least one of the magnets that is included within the rope so as to obtain a measurement associated with the signal; d) identifying a temperature and/or temperature range by comparing the obtained measurement to previously obtained data identifying various temperature measurements and/or ranges of temperature measurements for various specific measurements of the same type of signal as measured in step (c) above.
A cleaner holder, comprising: a first body comprising a charging port configured to charge a cleaner ; a second body configured to support the cleaner, wherein the second body is connected to the first body ; a locking part located on the first body and configured to attach to a battery housing of the cleaner to secure the cleaner; a fixing member located on the second body and configured to attach to a dust container of the cleaner to secure the cleaner; and a cleaner guide located on the second body and configured to support the dust container of the cleaner and guide movement of the cleaner during mounting of the cleaner on the cleaner holder characterized in that : the second body comprises a battery accommodation space configured to hold a battery . a first body comprising a charging port configured to charge a cleaner ; a second body configured to support the cleaner, wherein the second body is connected to the first body ; a locking part located on the first body and configured to attach to a battery housing of the cleaner to secure the cleaner; a fixing member located on the second body and configured to attach to a dust container of the cleaner to secure the cleaner; and a cleaner guide located on the second body and configured to support the dust container of the cleaner and guide movement of the cleaner during mounting of the cleaner on the cleaner holder characterized in that : the second body comprises a battery accommodation space configured to hold a battery .
Process for the production of alkane sulfonic acid by the reaction of sulfur trioxide and alkane with the help of a starter, selected from the group consisting of inorganic peroxoacids, salts of inorganic peroxoacids, organic peroxoacids, salts of organic peroxoacids, hydrogen peroxide, and mixtures thereof, and/or starter precursor, selected from the group consisting of sulfuric acid, oleum, SO3, alkanesulfonic acid, the bottom recycle stream from alkanesulfonic acid distillation, inorganic oxoacids, salts of inorganic oxoacids, hydrogen peroxide, and mixtures thereof, wherein the addition of the starter and/or starter precursor to the reactor cascade is split, wherein the synthesis is realized as batch process in a reactor cascade and the starter or starter precursor is divided and added in portions to the first reactor and to further reactors of the cascade, or wherein the synthesis is realized as continuous process and the starter or starter precursor is divided and added continuously to the first reactor and to further reactors of the cascade.
A single-use membrane-based separations device, comprising a first fluid impervious polymeric film segment having apertures and having a first membrane sealed thereto, said first fluid impervious polymeric film having a first leading edge and a first trailing edge; and a second fluid impervious polymeric film segment having apertures and having a second membrane sealed thereto, said second fluid impervious polymeric film having a second leading edge and a second trailing edge; wherein said first and second fluid impervious polymeric film segments form a zig-zag configuration, and wherein fluid introduced into said device flows through said first and second membranes in parallel; characterized in that said first trailing edge of said first fluid impervious polymeric film segment is joined to said second leading edge of said second fluid impervious polymeric film segment by epoxy, heat sealing or chemical bonding.
An apparatus comprising: a pumping chamber comprising a first inlet to receive fluid from a first reservoir and a second inlet to receive fluid from a second reservoir; a piezoelectric actuator operable to pump fluid through the pumping chamber toward a nozzle ; a descender having a first end and a second end , the first end of the descender centered relative to the pumping chamber and positioned between the first inlet and the second inlet, the descender defining a first fluid flow pathway between the pumping chamber and the nozzle , the nozzle being disposed at the second end of the descender , wherein: one or more second fluid flow pathways are defined at the second end of the descender , the one or more second fluid flow pathways comprises a plurality of fluid flow pathways to receive a portion of fluid flow from the pumping chamber through the descender , a first of the fluid flow pathways to be connected to the first reservoir, and a second of the fluid flow pathways to be connected to the second reservoir, and the portion of the fluid flow is not ejected through the nozzle . a pumping chamber comprising a first inlet to receive fluid from a first reservoir and a second inlet to receive fluid from a second reservoir; a piezoelectric actuator operable to pump fluid through the pumping chamber toward a nozzle ; a descender having a first end and a second end , the first end of the descender centered relative to the pumping chamber and positioned between the first inlet and the second inlet, the descender defining a first fluid flow pathway between the pumping chamber and the nozzle , the nozzle being disposed at the second end of the descender , wherein: one or more second fluid flow pathways are defined at the second end of the descender , the one or more second fluid flow pathways comprises a plurality of fluid flow pathways to receive a portion of fluid flow from the pumping chamber through the descender , a first of the fluid flow pathways to be connected to the first reservoir, and a second of the fluid flow pathways to be connected to the second reservoir, and the portion of the fluid flow is not ejected through the nozzle . one or more second fluid flow pathways are defined at the second end of the descender , the one or more second fluid flow pathways comprises a plurality of fluid flow pathways to receive a portion of fluid flow from the pumping chamber through the descender , a first of the fluid flow pathways to be connected to the first reservoir, and a second of the fluid flow pathways to be connected to the second reservoir, and the portion of the fluid flow is not ejected through the nozzle .
A housing component for an electronic device, comprising: a rear wall ; a top wall ; a ledge coupled to the rear wall and positioned below the top wall and comprising an overlap area and a projection area , the overlap area defined by a portion of the top wall that overlaps a portion of the ledge ; and an air outlet formed between the top wall and the ledge ; wherein the ledge is inclined relative to the rear wall such that a first angle between a first plane parallel to the ledge and a second plane parallel to the rear wall is less, than 90° such that fluid that falls-onto the projection area will flow down through the air outlet and along an exterior surface of the rear wall due to gravity. a rear wall ; a top wall ; a ledge coupled to the rear wall and positioned below the top wall and comprising an overlap area and a projection area , the overlap area defined by a portion of the top wall that overlaps a portion of the ledge ; and an air outlet formed between the top wall and the ledge ; wherein the ledge is inclined relative to the rear wall such that a first angle between a first plane parallel to the ledge and a second plane parallel to the rear wall is less, than 90° such that fluid that falls-onto the projection area will flow down through the air outlet and along an exterior surface of the rear wall due to gravity.
A vehicular lamp comprising: a front lens body extending in a predetermined direction; and a plurality of optical systems disposed along the predetermined direction behind the front lens body, the plurality of optical systems each includes: a rear lens unit disposed behind the front lens body; and a light source (32, 42a-42d) which is disposed behind the rear lens unit and emits light which is irradiated forward permeating the rear lens unit and the front lens body in that order to form a headlamp light distribution pattern, characterized by a first rear lens body (L1) and a second rear lens body (L2) disposed along the predetermined direction behind the front lens body, wherein each of the first rear lens body and the second rear lens body is a lens body formed by integrally molding a plurality of the rear lens units which are disposed adjacent to each other. a front lens body extending in a predetermined direction; and a plurality of optical systems disposed along the predetermined direction behind the front lens body, the plurality of optical systems each includes: a rear lens unit disposed behind the front lens body; and a light source (32, 42a-42d) which is disposed behind the rear lens unit and emits light which is irradiated forward permeating the rear lens unit and the front lens body in that order to form a headlamp light distribution pattern, characterized by a first rear lens body (L1) and a second rear lens body (L2) disposed along the predetermined direction behind the front lens body, wherein each of the first rear lens body and the second rear lens body is a lens body formed by integrally molding a plurality of the rear lens units which are disposed adjacent to each other. a rear lens unit disposed behind the front lens body; and a light source (32, 42a-42d) which is disposed behind the rear lens unit and emits light which is irradiated forward permeating the rear lens unit and the front lens body in that order to form a headlamp light distribution pattern, characterized by a first rear lens body (L1) and a second rear lens body (L2) disposed along the predetermined direction behind the front lens body, wherein each of the first rear lens body and the second rear lens body is a lens body formed by integrally molding a plurality of the rear lens units which are disposed adjacent to each other.
A blanket assembly for use in at least one bay and with at least one frame member of an aircraft , the blanket assembly comprising: an insulation blanket , the insulation blanket comprising, a bay section sized and shaped to fit within the at least one bay and of sufficient thickness to provide thermal insulation to the at least one bay; a return section disposed on a first side of the bay section; and a cap section disposed on a second side of the bay section, opposite the first side, the cap section sized and shaped to at least partially cover the at least one frame member when the cap section is wrapped around the at least one frame member, the cap section being of sufficient thickness to provide thermal insulation to the at least one frame member, wherein the bay section, the return section, and the cap section are of unitary construction, wherein the bay section , the return section , and the cap section vary in thickness as a continuous whole, without the use of seams or heat seals or tape joints, wherein the blanket assembly further comprises a retaining clip placed around the cap section , the retaining clip holding the cap section to the at least one frame member , the retaining clip being formed from a resilient material, wherein the retaining clip is made of a plastic or a thermoplastic, and wherein a cap section-facing portion of the retaining clip is textured to enhance a grip of the retaining clip on the insulation blanket . an insulation blanket , the insulation blanket comprising, a bay section sized and shaped to fit within the at least one bay and of sufficient thickness to provide thermal insulation to the at least one bay; a return section disposed on a first side of the bay section; and a cap section disposed on a second side of the bay section, opposite the first side, the cap section sized and shaped to at least partially cover the at least one frame member when the cap section is wrapped around the at least one frame member, the cap section being of sufficient thickness to provide thermal insulation to the at least one frame member, wherein the bay section, the return section, and the cap section are of unitary construction, wherein the bay section , the return section , and the cap section vary in thickness as a continuous whole, without the use of seams or heat seals or tape joints, wherein the blanket assembly further comprises a retaining clip placed around the cap section , the retaining clip holding the cap section to the at least one frame member , the retaining clip being formed from a resilient material, wherein the retaining clip is made of a plastic or a thermoplastic, and wherein a cap section-facing portion of the retaining clip is textured to enhance a grip of the retaining clip on the insulation blanket .
Process for the production of a three-dimensional object, the external area of which comprises at least one area section which is produced in that an area section in two-dimensional form is first produced by means of an additive manufacturing process, in particular a layer-by-layer shaping process, on a flat base plate , comprising the following steps: I) application of at least one hardenable polymer or hardenable reactive resin in flowable form in the form of lines of material onto a flat base plate by means of a layer-by-layer shaping process for the production of a first layer ; II) application of a second layer onto the first layer , produced by means of a layer-by-layer shaping process; III) optionally application of from 1 to 198 further layers produced as in step II), where respectively a new layer is applied onto the respective preceding layer; IV) hardening of the layers; V) separation of the hardened area section from the flat base plate ; and VI) molding of the hardened area section to give a three-dimensional object by means of deep-draw or thermoforming; where at least one layer is produced via application of at least one hardenable polymer or hardenable reactive resin in flowable form in the form of lines of material onto the respective substrate with respectively a modulus of elasticity in the cured state of ≥ 500 MPa in accordance with EN ISO 527-1, latest issue dated April 1996, current ISO version of February 2012. I) application of at least one hardenable polymer or hardenable reactive resin in flowable form in the form of lines of material onto a flat base plate by means of a layer-by-layer shaping process for the production of a first layer ; II) application of a second layer onto the first layer , produced by means of a layer-by-layer shaping process; III) optionally application of from 1 to 198 further layers produced as in step II), where respectively a new layer is applied onto the respective preceding layer; IV) hardening of the layers; V) separation of the hardened area section from the flat base plate ; and VI) molding of the hardened area section to give a three-dimensional object by means of deep-draw or thermoforming;
A thermoplastic resin composition comprising: a graft copolymer including a rubber polymer including a first styrene-based monomer unit and a diene-based monomer unit in a weight ratio of 10:90 to 35:65 and having an average particle diameter, as measured by dynamic light scattering as disclosed in the specification, of 250 to 450 nm, a (meth)acrylate-based monomer unit grafted onto the rubber polymer, a second styrene-based monomer unit grafted onto the rubber polymer; and a non-grafted copolymer including a (meth)acrylate-based monomer unit and a second styrene-based monomer unit, wherein the weight ratio of the (meth)acrylate-based monomer unit to the second styrene-based monomer unit is 2 or less, and a weight-average molecular weight of the thermoplastic resin composition, as measured as disclosed in the specification, ranges from 130,000 to 250,000 g/mol. a graft copolymer including a rubber polymer including a first styrene-based monomer unit and a diene-based monomer unit in a weight ratio of 10:90 to 35:65 and having an average particle diameter, as measured by dynamic light scattering as disclosed in the specification, of 250 to 450 nm, a (meth)acrylate-based monomer unit grafted onto the rubber polymer, a second styrene-based monomer unit grafted onto the rubber polymer; and a (meth)acrylate-based monomer unit grafted onto the rubber polymer, a second styrene-based monomer unit grafted onto the rubber polymer; and a non-grafted copolymer including a (meth)acrylate-based monomer unit and a second styrene-based monomer unit, wherein the weight ratio of the (meth)acrylate-based monomer unit to the second styrene-based monomer unit is 2 or less, and a weight-average molecular weight of the thermoplastic resin composition, as measured as disclosed in the specification, ranges from 130,000 to 250,000 g/mol.