mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device comprising: a control unit configured to: detect users and identify the detected users (U1, U2, U3, U4, U5); classify the identified users (U1, U2, U3, U4, U5) into a plurality of types on a basis of a state of a user (U1, U2, U3, U4, U5), wherein the state includes whether the user is staring at the information processing device; specify a target user (U1, U2, U3, U4, U5) serving as a target of an action based on the classified type of the user (U1, U2, U3, U4, U5); and decide the action for the target user (U1, U2, U3, U4, U5) on a basis of a distance (D1, D2) and the classified type of the target user (U1, U2, U3, U4, U5), wherein the distance (D1, D2) from the target user (U1, U2, U3, U4, U5) is the distance (D1, D2) between the information processing device and the target user (U1, U2, U3, U4, U5); and an output control unit configured to output the action. a control unit configured to: detect users and identify the detected users (U1, U2, U3, U4, U5); classify the identified users (U1, U2, U3, U4, U5) into a plurality of types on a basis of a state of a user (U1, U2, U3, U4, U5), wherein the state includes whether the user is staring at the information processing device; specify a target user (U1, U2, U3, U4, U5) serving as a target of an action based on the classified type of the user (U1, U2, U3, U4, U5); and decide the action for the target user (U1, U2, U3, U4, U5) on a basis of a distance (D1, D2) and the classified type of the target user (U1, U2, U3, U4, U5), wherein the distance (D1, D2) from the target user (U1, U2, U3, U4, U5) is the distance (D1, D2) between the information processing device and the target user (U1, U2, U3, U4, U5); and detect users and identify the detected users (U1, U2, U3, U4, U5); classify the identified users (U1, U2, U3, U4, U5) into a plurality of types on a basis of a state of a user (U1, U2, U3, U4, U5), wherein the state includes whether the user is staring at the information processing device; specify a target user (U1, U2, U3, U4, U5) serving as a target of an action based on the classified type of the user (U1, U2, U3, U4, U5); and decide the action for the target user (U1, U2, U3, U4, U5) on a basis of a distance (D1, D2) and the classified type of the target user (U1, U2, U3, U4, U5), wherein the distance (D1, D2) from the target user (U1, U2, U3, U4, U5) is the distance (D1, D2) between the information processing device and the target user (U1, U2, U3, U4, U5); and an output control unit configured to output the action.
An array of photovoltaic panels comprising a first photovoltaic panel and a second photovoltaic panel having a first side edge, and a second side edge opposite to the first side edge, wherein the first and the second photovoltaic panels have an upper layer (21; 11) and a lower layer (23; 13), wherein the upper layer (21; 11) is offset with respect to the lower layer (23; 13) at the first and second side edges, such that the upper layer of the first photovoltaic panel partially overlaps the lower layer of the second photovoltaic panel , and the array characterized in that the array further comprises a seal assembly for arrangement between the first and second photovoltaic panels, wherein the seal assembly comprises: an upper abutment part for abutting the upper layers (21; 11) of the first and second photovoltaic panels, characterized in that the seal assembly further comprises: a lower abutment part for abutting the lower layers (23; 13) of the first and second photovoltaic panel, and an intermediate part connecting the upper abutment part with the lower abutment part and configured for being arranged between the upper layer of the first photovoltaic panel and the lower layer of the second photovoltaic panel the first and the second photovoltaic panels have an upper layer (21; 11) and a lower layer (23; 13), wherein the upper layer (21; 11) is offset with respect to the lower layer (23; 13) at the first and second side edges, such that the upper layer of the first photovoltaic panel partially overlaps the lower layer of the second photovoltaic panel , and the array characterized in that the array further comprises a seal assembly for arrangement between the first and second photovoltaic panels, wherein the seal assembly comprises: an upper abutment part for abutting the upper layers (21; 11) of the first and second photovoltaic panels, characterized in that the seal assembly further comprises: a lower abutment part for abutting the lower layers (23; 13) of the first and second photovoltaic panel, and an intermediate part connecting the upper abutment part with the lower abutment part and configured for being arranged between the upper layer of the first photovoltaic panel and the lower layer of the second photovoltaic panel an upper abutment part for abutting the upper layers (21; 11) of the first and second photovoltaic panels, characterized in that the seal assembly further comprises: a lower abutment part for abutting the lower layers (23; 13) of the first and second photovoltaic panel, and an intermediate part connecting the upper abutment part with the lower abutment part and configured for being arranged between the upper layer of the first photovoltaic panel and the lower layer of the second photovoltaic panel a lower abutment part for abutting the lower layers (23; 13) of the first and second photovoltaic panel, and an intermediate part connecting the upper abutment part with the lower abutment part and configured for being arranged between the upper layer of the first photovoltaic panel and the lower layer of the second photovoltaic panel
An integral filter , comprising: a multilayer media having at least three layers forming a hollow tube shape, said multilayer media supported by a tube structure and positionable in an air flow, said air flow able to pass through said at least three layers ; a pre-filtration first layer forming an outer circumference and an in-flow surface of said multilayer media , wherein said first layer is formed of microglass fibers , and said first layer includes a first material that is hydrophobic, wherein said first material is a binder for binding said microglass fibers , and wherein said first layer is hydrophobic; a porous membrane filtration second layer formed of a second material, wherein said second material is formed of at least one of expanded polytetrafluoroethylene and high molecular weight polyethylene, said second layer interposed between said first layer and a structurally supportive third layer ; and said third layer downstream of said first layer in said air flow, wherein said third layer is formed of at least one of polyethylene spun bond, polyethylene air laid, bi-component spun bond, and bi-component air laid, and said third layer at least one of pleatable and embossable. a multilayer media having at least three layers forming a hollow tube shape, said multilayer media supported by a tube structure and positionable in an air flow, said air flow able to pass through said at least three layers ; a pre-filtration first layer forming an outer circumference and an in-flow surface of said multilayer media , wherein said first layer is formed of microglass fibers , and said first layer includes a first material that is hydrophobic, wherein said first material is a binder for binding said microglass fibers , and wherein said first layer is hydrophobic; a porous membrane filtration second layer formed of a second material, wherein said second material is formed of at least one of expanded polytetrafluoroethylene and high molecular weight polyethylene, said second layer interposed between said first layer and a structurally supportive third layer ; and said third layer downstream of said first layer in said air flow, wherein said third layer is formed of at least one of polyethylene spun bond, polyethylene air laid, bi-component spun bond, and bi-component air laid, and said third layer at least one of pleatable and embossable.
A composite material element , particularly for the manufacture of sports equipment, characterized in that it comprises at least one compressed mixed layer of cork granules and short fibers .
System for co-generation of electrical energy and thermal energy comprising: ▪ an organic Rankine cycle module intended to produce electrical energy comprising a pump , a preheating exchanger , an evaporator , an expander , a condenser and a fluid circuit capable of receiving a working fluid, and ▪ a circuit for circulating a heat source comprising a first branch arranged at the evaporator to ensure a heat exchange between the hot source and the working fluid at the evaporator , the circuit for circulating the heat source comprising: ▪ a second branch arranged at the preheating exchanger to ensure a heat exchange between the hot source coming from the evaporator and the working fluid at the preheating exchanger , the first branch and the second branch being arranged in series, configured such that the heat source circulates successively in the first branch then in the second branch , and ▪ a tap outlet arranged between the first branch and the second branch configured to ensure an intermediate outlet of the hot source coming from the evaporator , configured to be connected to a thermal energy enhancement unit intended to use the thermal energy from the hot source . ▪ an organic Rankine cycle module intended to produce electrical energy comprising a pump , a preheating exchanger , an evaporator , an expander , a condenser and a fluid circuit capable of receiving a working fluid, and ▪ a circuit for circulating a heat source comprising a first branch arranged at the evaporator to ensure a heat exchange between the hot source and the working fluid at the evaporator , ▪ a second branch arranged at the preheating exchanger to ensure a heat exchange between the hot source coming from the evaporator and the working fluid at the preheating exchanger , the first branch and the second branch being arranged in series, configured such that the heat source circulates successively in the first branch then in the second branch , and ▪ a tap outlet arranged between the first branch and the second branch configured to ensure an intermediate outlet of the hot source coming from the evaporator , configured to be connected to a thermal energy enhancement unit intended to use the thermal energy from the hot source .
A switching apparatus comprising: a first current-conductive branch including a first switching element , the first switching element configured to be switchable to selectively permit and block a flow of current in the first current-conductive branch ; a second current-conductive branch including a second switching element , the second switching element configured to be switchable to selectively permit and block a flow of current in the second current-conductive branch ; and first and second terminals for connection, in use, to an electrical network , wherein the first and second current-conductive branches extend between the first and second terminals , wherein the switching apparatus further includes an inductance element configured to carry, in use, a current flowing through the switching apparatus, the switching apparatus being characterised in that it further comprises a secondary winding electrically coupled to a gate drive of the second switching element , the inductance element being mutually coupled with the secondary transformer winding in such a way that the inductance element is electrically coupled to the second switching element through the secondary winding and that inductance element is configured as a power source for enabling the operation of the second switching element with a galvanic isolation from the first current-conductive branch . a first current-conductive branch including a first switching element , the first switching element configured to be switchable to selectively permit and block a flow of current in the first current-conductive branch ; a second current-conductive branch including a second switching element , the second switching element configured to be switchable to selectively permit and block a flow of current in the second current-conductive branch ; and first and second terminals for connection, in use, to an electrical network , wherein the first and second current-conductive branches extend between the first and second terminals , wherein the switching apparatus further includes an inductance element configured to carry, in use, a current flowing through the switching apparatus, the switching apparatus being characterised in that it further comprises a secondary winding electrically coupled to a gate drive of the second switching element , the inductance element being mutually coupled with the secondary transformer winding in such a way that the inductance element is electrically coupled to the second switching element through the secondary winding and that inductance element is configured as a power source for enabling the operation of the second switching element with a galvanic isolation from the first current-conductive branch .
A locking confirmation device for detecting the locking states of the electrode contacts in a battery module, the locking confirmation device comprising: an electrode comprising an electrode thread and a positioning thread ; a terminal bolt screwed into the electrode thread for locking a conductor and the electrode thread , wherein the terminal bolt comprises at least one positioning recess ; a detection sensor assembly comprising an insulated cover , a first contact , a second contact , an elastic spacer and a voltage signal input connector, wherein the second contact is connected to the voltage signal input connector, the elastic spacer is disposed between the first contact and the second contact , and when the insulated cover is extruded by the positioning bolt and the elastic spacer is compressed, the first contact and the second contact are contacted with each other and a circuit is formed for returning a voltage signal of a node of the electrode ; and a positioning bolt screwed into the positioning thread for fixing the detection sensor assembly on the positioning thread , wherein when a head portion of the positioning bolt is received within the positioning recess , the terminal bolt is led to a locking state by the head portion of the positioning bolt . an electrode comprising an electrode thread and a positioning thread ; a terminal bolt screwed into the electrode thread for locking a conductor and the electrode thread , wherein the terminal bolt comprises at least one positioning recess ; a detection sensor assembly comprising an insulated cover , a first contact , a second contact , an elastic spacer and a voltage signal input connector, wherein the second contact is connected to the voltage signal input connector, the elastic spacer is disposed between the first contact and the second contact , and when the insulated cover is extruded by the positioning bolt and the elastic spacer is compressed, the first contact and the second contact are contacted with each other and a circuit is formed for returning a voltage signal of a node of the electrode ; and a positioning bolt screwed into the positioning thread for fixing the detection sensor assembly on the positioning thread , wherein when a head portion of the positioning bolt is received within the positioning recess , the terminal bolt is led to a locking state by the head portion of the positioning bolt .
Print head for applying a coating agent to a component, in particular for applying a paint to a motor vehicle body component, having a) a nozzle plate , b) at least one nozzle in the nozzle plate for dispensing the coating agent, and c) a valve drive d) a valve element movable relative to the nozzle plate for controlling the release of coating agent through the nozzle , d1) wherein the movable valve element closes the nozzle in a closed position, d2) whereas the movable valve element releases the nozzle in an opened position, d3) wherein the valve element is plate-shaped and can be displaced by the valve drive ; characterized in that e) in the closed position, the valve element rests on the underside of the nozzle plate remote from the valve drive . a) a nozzle plate , b) at least one nozzle in the nozzle plate for dispensing the coating agent, and c) a valve drive d) a valve element movable relative to the nozzle plate for controlling the release of coating agent through the nozzle , d1) wherein the movable valve element closes the nozzle in a closed position, d2) whereas the movable valve element releases the nozzle in an opened position, d3) wherein the valve element is plate-shaped and can be displaced by the valve drive ; characterized in that d1) wherein the movable valve element closes the nozzle in a closed position, d2) whereas the movable valve element releases the nozzle in an opened position, d3) wherein the valve element is plate-shaped and can be displaced by the valve drive ; e) in the closed position, the valve element rests on the underside of the nozzle plate remote from the valve drive .
A folding member comprising: a first supporting member (SM1) and a second supporting member (SM2); a plurality of joint units (JP1, JP2, JP3) connected, on first sides thereof, to the first supporting member (SM1), connected, on second sides thereof, to the second supporting member (SM2), and coupled to one another to be rotatable along a first curved trajectory (CT1) or a second curved trajectory (CT2); a third supporting member (SM3) disposed below the first supporting member (SM1); a fourth supporting member (SM4) disposed below the second supporting member (SM2); and a hinge member (HGM) providing first and second rotational axes (RX1, RX2), which are parallel to each other, to first sides of the third and fourth supporting members (SM3, SM4), respectively, which are opposite to each other, wherein: the first joint units (JP1) and the second joint units (JP2) are arranged along two curved trajectories (CT1, CT2), the first curved trajectory (CT1) and the second curved trajectory (CT2) different from the first curved trajectory (CT1), when the folding member rotates with reference to the first and second rotational axes (RX1, RX2), and the two curved trajectories (CT1, CT2) are defined as parts of two reference circles, each of the plurality of joint units (JP1, JP2, JP3) includes a first guide part (GDI), and each of the third and fourth supporting members (SM3, SM4) includes, in an area thereof, a second guide part (GD2) which guides the first guide part (GD1) to rotate along the first curved trajectory (CT1) or the second curved trajectory (CT2). a first supporting member (SM1) and a second supporting member (SM2); a plurality of joint units (JP1, JP2, JP3) connected, on first sides thereof, to the first supporting member (SM1), connected, on second sides thereof, to the second supporting member (SM2), and coupled to one another to be rotatable along a first curved trajectory (CT1) or a second curved trajectory (CT2); a third supporting member (SM3) disposed below the first supporting member (SM1); a fourth supporting member (SM4) disposed below the second supporting member (SM2); and a hinge member (HGM) providing first and second rotational axes (RX1, RX2), which are parallel to each other, to first sides of the third and fourth supporting members (SM3, SM4), respectively, which are opposite to each other, the first joint units (JP1) and the second joint units (JP2) are arranged along two curved trajectories (CT1, CT2), the first curved trajectory (CT1) and the second curved trajectory (CT2) different from the first curved trajectory (CT1), when the folding member rotates with reference to the first and second rotational axes (RX1, RX2), and the two curved trajectories (CT1, CT2) are defined as parts of two reference circles, each of the plurality of joint units (JP1, JP2, JP3) includes a first guide part (GDI), and each of the third and fourth supporting members (SM3, SM4) includes, in an area thereof, a second guide part (GD2) which guides the first guide part (GD1) to rotate along the first curved trajectory (CT1) or the second curved trajectory (CT2).
A process fluid temperature estimation system comprising: a mounting assembly configured to mount the process fluid temperature estimation system to an external surface of a process fluid conduit ; a sensor capsule having at least one temperature sensitive element disposed therein; measurement circuitry coupled to the sensor capsule and configured to detect a characteristic of the at least one temperature sensitive element that varies with temperature and provide sensor capsule temperature information (T hotEnd ); a high temperature spacer having a known thermal conductivity (R spacer ) and configured to pass through an aperture in the mounting assembly and be interposed between the external surface of the process fluid conduit and the at least one temperature sensitive element ; a controller coupled to the measurement circuitry , the controller being configured to obtain a reference temperature (T reference ) and employ a heat transfer calculation with the reference temperature (T reference ), the sensor capsule temperature information (T hotEnd ) and the known thermal conductivity (R spacer ) of the high temperature spacer to generate an estimated process fluid temperature output (T corrected ); and wherein the system is configured such that the sensor capsule is in contact with a distal end of the high temperature spacer away from the process fluid conduit . a mounting assembly configured to mount the process fluid temperature estimation system to an external surface of a process fluid conduit ; a sensor capsule having at least one temperature sensitive element disposed therein; measurement circuitry coupled to the sensor capsule and configured to detect a characteristic of the at least one temperature sensitive element that varies with temperature and provide sensor capsule temperature information (T hotEnd ); a high temperature spacer having a known thermal conductivity (R spacer ) and configured to pass through an aperture in the mounting assembly and be interposed between the external surface of the process fluid conduit and the at least one temperature sensitive element ; a controller coupled to the measurement circuitry , the controller being configured to obtain a reference temperature (T reference ) and employ a heat transfer calculation with the reference temperature (T reference ), the sensor capsule temperature information (T hotEnd ) and the known thermal conductivity (R spacer ) of the high temperature spacer to generate an estimated process fluid temperature output (T corrected ); and wherein the system is configured such that the sensor capsule is in contact with a distal end of the high temperature spacer away from the process fluid conduit .