mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic analyzer , comprising: a photomultiplier tube ; a board disposed vertically below the photomultiplier tube ; and a flow cell disposed vertically below the board , wherein a lower surface of the board has a protrusion portion and/or a recess portion , and an upper surface of the flow cell has a recess portion and/or a protrusion portion , characterized in that the automatic analyzer comprises a plurality of pressing members configured to press the flow cell vertically upward from below in a state in which the recess portion and/or the protrusion portion of the flow cell is fitted to the protrusion portion and/or the recess portion of the board and an interlocking mechanism configured to interlock operations of the plurality of pressing members , wherein the plurality of pressing members are configured to simultaneously press the flow cell by the interlocking mechanism . a photomultiplier tube ; a board disposed vertically below the photomultiplier tube ; and a flow cell disposed vertically below the board , wherein a lower surface of the board has a protrusion portion and/or a recess portion , and an upper surface of the flow cell has a recess portion and/or a protrusion portion , characterized in that the automatic analyzer comprises a plurality of pressing members configured to press the flow cell vertically upward from below in a state in which the recess portion and/or the protrusion portion of the flow cell is fitted to the protrusion portion and/or the recess portion of the board and an interlocking mechanism configured to interlock operations of the plurality of pressing members , wherein the plurality of pressing members are configured to simultaneously press the flow cell by the interlocking mechanism .
Process for producing a polyester comprising 2,5-furandicarboxylate units, which process comprises: a) providing or producing a starting composition comprising 2,5-furandicarboxylic acid, an aliphatic diol and a suppressant for suppressing ether formation between the aliphatic diol molecules, b) subjecting the starting composition to esterification conditions to produce an ester composition, and c) contacting the ester composition with a germanium containing catalyst at polycondensation conditions to produce a polyester comprising 2,5-furandicarboxylate units, wherein the suppressant is selected from the group consisting of amines and lithium hydroxide. a) providing or producing a starting composition comprising 2,5-furandicarboxylic acid, an aliphatic diol and a suppressant for suppressing ether formation between the aliphatic diol molecules, b) subjecting the starting composition to esterification conditions to produce an ester composition, and c) contacting the ester composition with a germanium containing catalyst at polycondensation conditions to produce a polyester comprising 2,5-furandicarboxylate units, wherein the suppressant is selected from the group consisting of amines and lithium hydroxide.
A method for executing a program (P) in an electronic device such as a smart card, comprising steps of: • computing a first integrity datum (X1, X12) relating to a set (E) of code instructions of the program (P), the set (E) comprising a single code instruction (Inst_1) or a sequence of code instructions (P) to be executed consecutively (Inst_1, Inst_2), • after computation of the first integrity datum, executing a last code instruction of the set (E) by a processor of the electronic device , • after execution of the last code instruction, checking integrity of the set (E) on the basis of the first computed integrity datum (X1, X12), wherein checking said integrity comprises repeating the computing step to produce a second integrity check datum (X1', X12') relating to the set (E) of code instructions of the program (P), and comparing the first and second integrity check data, • signaling or not signaling an error as a function of the result of comparison, the method being characterized in that the first integrity datum is computed during execution of the program (P). • computing a first integrity datum (X1, X12) relating to a set (E) of code instructions of the program (P), the set (E) comprising a single code instruction (Inst_1) or a sequence of code instructions (P) to be executed consecutively (Inst_1, Inst_2), • after computation of the first integrity datum, executing a last code instruction of the set (E) by a processor of the electronic device , • after execution of the last code instruction, checking integrity of the set (E) on the basis of the first computed integrity datum (X1, X12), wherein checking said integrity comprises repeating the computing step to produce a second integrity check datum (X1', X12') relating to the set (E) of code instructions of the program (P), and comparing the first and second integrity check data, • signaling or not signaling an error as a function of the result of comparison,
A method for directing traffic, comprising: determining (S102; S106) whether a tag of a to-be-sent data packet is same as a reference tag configured in a preset matching rule; in response to the tag of the to-be-sent data packet being different from the reference tag configured in the preset matching rule, configuring the to-be-sent data packet with the reference tag by redirecting the to-be-sent data packet to a local proxy that possesses a function of labeling the reference tag; determining, by the local proxy, whether the to-be-sent data packet needs to be accelerated; and in response to the to-be-sent data packet that needs to be accelerated, sending (S104) the to-be-sent data packet configured with the reference tag to an acceleration server; in response to the contrary, sending the to-be-sent data packet configured with the reference tag to a source station. determining (S102; S106) whether a tag of a to-be-sent data packet is same as a reference tag configured in a preset matching rule; in response to the tag of the to-be-sent data packet being different from the reference tag configured in the preset matching rule, configuring the to-be-sent data packet with the reference tag by redirecting the to-be-sent data packet to a local proxy that possesses a function of labeling the reference tag; determining, by the local proxy, whether the to-be-sent data packet needs to be accelerated; and in response to the to-be-sent data packet that needs to be accelerated, sending (S104) the to-be-sent data packet configured with the reference tag to an acceleration server; in response to the contrary, sending the to-be-sent data packet configured with the reference tag to a source station.
A wind turbine blade assembly comprising: first and second blade sections connected together, each blade section having a shell defining an aerodynamic profile and each section comprising lightning protection components; a substantially enclosed interior region defined in part by the shell of the first blade section and in part by the shell of the second blade section ; a first connector located in the interior region, the first connector being attached to the first blade section and electrically connected to the lightning protection components of the first blade section, the first connector defining a contact surface ; a second connector located in the interior region, the second connector being attached to the second blade section and electrically connected to the lightning protection components of the second blade section, the second connector defining a contact surface opposed to and in contact with the contact surface of the first connector; and a first fastener extending through the shell of the first blade section into the interior region , the first fastener having a threaded shank that extends at least partially through the first and second connectors , wherein the first fastener clamps the contact surfaces of the first and second connectors together to form a torqued connection between the first and second connectors. first and second blade sections connected together, each blade section having a shell defining an aerodynamic profile and each section comprising lightning protection components; a substantially enclosed interior region defined in part by the shell of the first blade section and in part by the shell of the second blade section ; a first connector located in the interior region, the first connector being attached to the first blade section and electrically connected to the lightning protection components of the first blade section, the first connector defining a contact surface ; a second connector located in the interior region, the second connector being attached to the second blade section and electrically connected to the lightning protection components of the second blade section, the second connector defining a contact surface opposed to and in contact with the contact surface of the first connector; and a first fastener extending through the shell of the first blade section into the interior region , the first fastener having a threaded shank that extends at least partially through the first and second connectors , wherein the first fastener clamps the contact surfaces of the first and second connectors together to form a torqued connection between the first and second connectors.
Rack for mounting multiple equipment modules, said rack presenting a left side , a right side a front side , a back side , a top side and a bottom side, said rack comprising : - a frame having left-side vertical posts and right-side vertical posts , - a plurality of RF amplifier modules , mounted to the frame between the left-side vertical posts on the one hand and the right-side vertical posts on the other hand, each RF amplifier module comprising an RF amplifier circuit having an RF input and an amplified RF output , - a first RF power combiner whose first combiner inputs are connected to the amplified RF outputs of the RF amplifier modules to deliver a first combined RF power output , characterized in that the first RF power combiner is mounted at least partially in a volume comprised between the left-side vertical posts of the frame or at least partially in a volume comprised between the right-side vertical posts of the frame, in that each RF amplifier module has a front face located at the front side of the rack , and in that said front face comprises an electrical circuit linking the amplified RF output of the RF amplifier module to the first RF power combiner . - a frame having left-side vertical posts and right-side vertical posts , - a plurality of RF amplifier modules , mounted to the frame between the left-side vertical posts on the one hand and the right-side vertical posts on the other hand, each RF amplifier module comprising an RF amplifier circuit having an RF input and an amplified RF output , - a first RF power combiner whose first combiner inputs are connected to the amplified RF outputs of the RF amplifier modules to deliver a first combined RF power output , characterized in that the first RF power combiner is mounted at least partially in a volume comprised between the left-side vertical posts of the frame or at least partially in a volume comprised between the right-side vertical posts of the frame, in that each RF amplifier module has a front face located at the front side of the rack , and in that said front face comprises an electrical circuit linking the amplified RF output of the RF amplifier module to the first RF power combiner .
A screw compressor comprising: a screw compressor rotor , the rotor including a helical flute extending outwardly from a rotor axis; a compressor housing surrounding the rotor and including a suction port and a discharge port , the housing having an inner housing wall abutting the rotor and an outer housing wall forming an exterior of the compressor, whereby a housing pocket is disposed between the outer housing wall and the inner housing wall ; and an economizer port is present extending from the housing pocket through the inner housing wall to direct a flow of gaseous refrigerant into the compressor, wherein the economizer port comprises an outer wall opening in the outer housing wall , the pocket , and an inner wall opening in the inner housing wall , characterized in that the inner wall opening of the economizer port has a width between 1/32" (0.79 millimeters) and 1/4" (6.35 millimeters). a screw compressor rotor , the rotor including a helical flute extending outwardly from a rotor axis; a compressor housing surrounding the rotor and including a suction port and a discharge port , the housing having an inner housing wall abutting the rotor and an outer housing wall forming an exterior of the compressor, whereby a housing pocket is disposed between the outer housing wall and the inner housing wall ; and an economizer port is present extending from the housing pocket through the inner housing wall to direct a flow of gaseous refrigerant into the compressor, wherein the economizer port comprises an outer wall opening in the outer housing wall , the pocket , and an inner wall opening in the inner housing wall , characterized in that the inner wall opening of the economizer port has a width between 1/32" (0.79 millimeters) and 1/4" (6.35 millimeters).
Display system comprising: a. a first and a second display module arranged concentrically with respect to each other around a common geometric center (C) and each comprising at least two display members (31, 32, 33; 31', 32', 33') movable with respect to a frame between a rest position and a display position under the action of at least one actuator to form a pattern (M, M'), and b. an actuating device arranged to cooperate with the actuator of each display module and move said movable display members (32, 33; 32', 33') from the rest position to the display position to simultaneously form a said pattern (M, M') on each display module , characterized in that said at least one actuator of each display module is secured to the frame and movable relative thereto by means of a plurality of flexible links . a. a first and a second display module arranged concentrically with respect to each other around a common geometric center (C) and each comprising at least two display members (31, 32, 33; 31', 32', 33') movable with respect to a frame between a rest position and a display position under the action of at least one actuator to form a pattern (M, M'), and b. an actuating device arranged to cooperate with the actuator of each display module and move said movable display members (32, 33; 32', 33') from the rest position to the display position to simultaneously form a said pattern (M, M') on each display module ,
A light detector comprising: a substrate ; and a membrane which is supported on a surface of the substrate so that a space is formed between the surface of the substrate and the membrane , wherein the membrane includes a first wiring layer and a second wiring layer which are opposite each other with a gap extending along a line interposed therebetween, a resistance layer which is electrically connected to each of the first wiring layer and the second wiring layer and has an electric resistance depending on a temperature, a light absorption layer which is opposite to the surface of the substrate , and a separation layer which is disposed between the first wiring layer and the light absorption layer , and the second wiring layer and the absorption layer , wherein the light absorption layer includes a first region which spreads to the side opposite to the second wiring layer with respect to the first wiring layer to avoid an overlap with the first wiring layer when viewed from the thickness direction of the substrate and a second region which spreads to the side opposite to the first wiring layer with respect to the second wiring layer to avoid an overlap with the second wiring layer when viewed from the thickness direction of the substrate, and wherein the width of each of the first region and the second region in a direction orthogonal to the line is greater than the width of the gap in a direction orthogonal to the line when viewed from the thickness direction of the substrate . a substrate ; and a membrane which is supported on a surface of the substrate so that a space is formed between the surface of the substrate and the membrane , wherein the membrane includes a first wiring layer and a second wiring layer which are opposite each other with a gap extending along a line interposed therebetween, a resistance layer which is electrically connected to each of the first wiring layer and the second wiring layer and has an electric resistance depending on a temperature, a light absorption layer which is opposite to the surface of the substrate , and a separation layer which is disposed between the first wiring layer and the light absorption layer , and the second wiring layer and the absorption layer , wherein the light absorption layer includes a first region which spreads to the side opposite to the second wiring layer with respect to the first wiring layer to avoid an overlap with the first wiring layer when viewed from the thickness direction of the substrate and a second region which spreads to the side opposite to the first wiring layer with respect to the second wiring layer to avoid an overlap with the second wiring layer when viewed from the thickness direction of the substrate, and wherein the width of each of the first region and the second region in a direction orthogonal to the line is greater than the width of the gap in a direction orthogonal to the line when viewed from the thickness direction of the substrate .
A side airbag device comprising a side airbag which expands and deploys from a side part of a seat inside a vehicle when supplied with gas, and an inflator which supplies gas to the side airbag , wherein the side airbag is housed in a wound and elongated state inside the seat before expansion and development, and includes a first region and a second region , wherein the first region includes an earliest deploying part and a latest deploying part , wherein the second region is positioned between the earliest deploying part and the latest deploying part , wherein the side airbag is wound such that a winding direction is switched from the earliest deploying part to the second region winding to an opposite direction from periphery toward a center of folding, and then from the second region to the latest deploying part from the opposite direction to the original winding direction inside the earliest deploying part , and so that the side airbag in the housed state sequentially expands and develops from the periphery of the winding towards a center of the winding.
A fire extinguisher (1; 1') comprising a body (2; 2') extending along a longitudinal axis (X; X') and defining a storage chamber (4; 4') in which a load of an extinguishing agent is present, and also a pressurizing chamber (5; 5') comprising a pyrotechnic gas generator (20; 20'), the pressurizing chamber (5; 5') being separated from the storage chamber (4; 4') by a perforated wall (7; 7') configured to put an outlet of the pyrotechnic gas generator (20; 20') into communication with the storage chamber (4; 4'), the perforated wall (7; 7') defining an end of the storage chamber (4; 4'), the extinguisher having a discharge channel (12; 12') configured to deliver the extinguishing agent to the outside of the extinguisher (1; 1') during actuation of the pyrotechnic gas generator (20; 20'); the extinguisher being characterized in that said discharge channel (12; 12') opens out into the storage chamber (4; 4') through an opening (12a; 12'a) positioned at a distance (d) from the perforated wall (7; 7'), as measured along the longitudinal axis of the body, that is less than or equal to half the length (l s ) of the storage chamber (4; 4').
A martensitic stainless steel sheet comprising a chemical composition containing, by mass%, C: 0.030 % or more and less than 0.20 %, Si: 0.01 % or more and 2.0 % or less, Mn: 0.01 % or more and 3.0 % or less, P: 0.050 % or less, S: 0.010 % or less, Cr: 10.0 % or more and 16.0 % or less, Ni: 0.01 % or more and 0.80 % or less, Al: 0.001 % or more and 0.50 % or less, Zr: 0.005 % or more and 0.50 % or less, and N: 0.030 % or more and less than 0.20 %, optionally at least one selected from the group consisting of Cu: 0.01 % or more and 3.0 % or less, Mo: 0.01 % or more and 0.50 % or less, Co: 0.01 % or more and 0.50 % or less, Ti: 0.001 % or more and 0.50 % or less, Nb: 0.001 % or more and 0.50 % or less, V: 0.001 % or more and 0.50 % or less, B: 0.0002 % or more and 0.0100 % or less, Ca: 0.0002 % or more and 0.0100 % or less, and Mg: 0.0002 % or more and 0.0100 % or less, with the balance consisting of Fe and inevitable impurities, wherein the martensitic stainless steel sheet has a tensile strength of 1300 MPa or more, an elongation of 7.0 % or more, and an ultimate deformability of 0.5 or more, measured in a room temperature tensile test according to JIS Z 2241.
A MSE-type zeolite which has a Si/Al ratio of 55 or more, is a proton-type zeolite, and is obtained by transforming a raw material MSE-type zeolite synthesized without using a structure directing agent into an ammonium-type zeolite through ion exchange, then, exposing the MSE-type zeolite to water vapor at 150°C to 1000°C for 1 hour to 48 hours, and subjecting the exposed MSE-type zeolite to an acid treatment at 40°C to 100°C for 1 hour to 24 hours using mineral acid.
A method of vibration control for a wellbore logging tool, the wellbore logging tool comprising an acoustic transmitter, the method comprising: providing a braking signal to the acoustic transmitter after a drive signal has been provided to the acoustic transmitter, wherein the braking signal is based, at least in part, on at least one prior vibration in the acoustic transmitter of a firing cycle that is prior to the firing cycle of the acoustic transmitter; the method being characterized by further comprising: determining a present vibration in the acoustic transmitter after the braking signal has been provided to the acoustic transmitter and is terminated; and determining whether to update the braking signal and, if so, updating the braking signal based, at least in part, on the present vibration in the acoustic transmitter , wherein the braking signal is a function of one or more of a frequency and a phase of the present vibration in the acoustic transmitter. providing a braking signal to the acoustic transmitter after a drive signal has been provided to the acoustic transmitter, wherein the braking signal is based, at least in part, on at least one prior vibration in the acoustic transmitter of a firing cycle that is prior to the firing cycle of the acoustic transmitter; the method being characterized by further comprising: determining a present vibration in the acoustic transmitter after the braking signal has been provided to the acoustic transmitter and is terminated; and determining whether to update the braking signal and, if so, updating the braking signal based, at least in part, on the present vibration in the acoustic transmitter , wherein the braking signal is a function of one or more of a frequency and a phase of the present vibration in the acoustic transmitter. determining a present vibration in the acoustic transmitter after the braking signal has been provided to the acoustic transmitter and is terminated; and determining whether to update the braking signal and, if so, updating the braking signal based, at least in part, on the present vibration in the acoustic transmitter , wherein the braking signal is a function of one or more of a frequency and a phase of the present vibration in the acoustic transmitter.