mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid chromatography system comprising: a solvent delivery system ; a sample delivery system in fluidic communication with solvent delivery system ; a liquid chromatography column located downstream from the solvent delivery system and the sample delivery system ; a detector located downstream from the liquid chromatography column ; and a pressure transducer comprising: a body made of a first material having a first coefficient of thermal expansion, the body having a flat surface on the outside of the body , wherein the first material is titanium or stainless steel; a fluidic inlet ; a fluidic outlet ; and a fluidic cavity enclosed by the body extending between the fluidic inlet and the fluidic outlet ; further comprising a strain gauge including a resistive element in operable contact with the body and disposed on the flat outside surface of the body , characterized by at least a portion of the resistive element made of a second material having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion of the body , wherein the second material is aluminum. a solvent delivery system ; a sample delivery system in fluidic communication with solvent delivery system ; a liquid chromatography column located downstream from the solvent delivery system and the sample delivery system ; a detector located downstream from the liquid chromatography column ; and a pressure transducer comprising: a body made of a first material having a first coefficient of thermal expansion, the body having a flat surface on the outside of the body , wherein the first material is titanium or stainless steel; a fluidic inlet ; a fluidic outlet ; and a fluidic cavity enclosed by the body extending between the fluidic inlet and the fluidic outlet ; further comprising a strain gauge including a resistive element in operable contact with the body and disposed on the flat outside surface of the body , characterized by at least a portion of the resistive element made of a second material having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion of the body , wherein the second material is aluminum. a body made of a first material having a first coefficient of thermal expansion, the body having a flat surface on the outside of the body , wherein the first material is titanium or stainless steel; a fluidic inlet ; a fluidic outlet ; and a fluidic cavity enclosed by the body extending between the fluidic inlet and the fluidic outlet ; further comprising a strain gauge including a resistive element in operable contact with the body and disposed on the flat outside surface of the body , characterized by at least a portion of the resistive element made of a second material having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion of the body , wherein the second material is aluminum.
A multi-coupler connector device comprising a main housing body which defines a first seat and a second seat , and a first coupler and a second coupler housed in said first seat and said second seat , respectively, wherein said main housing body further defines a chamber in communication with each of said first seat and second seat , said device further comprising a main pin or shaft received inside said chamber and adapted to be rotated on an axis of rotation (A) in a first direction of rotation and a second direction of rotation opposite to said first direction of rotation, along with a rocker arm received in said chamber and linked to said main pin or shaft so that so rotating said main pin or shaft in said first direction of rotation and second direction of rotation results in said rocker arm being rotated in said first direction of rotation and second direction of rotation, respectively, wherein rotating said rocker arm in said first direction of rotation and said second direction of rotation results in said first coupler being actuated and the residual pressure inside thereof being relieved and respectively in said second coupler being actuated and the residual pressure inside thereof being relieved, wherein said rocker arm comprises a main support body rigidly fixed to said main pin or shaft so that rotating said main pin or shaft in said first direction of rotation and second direction of rotation results in said main support body of said rocker arm being rotated in said first direction of rotation and second direction of rotation, respectively, characterized in that said rocker arm further comprises a first actuating portion and a second actuating portion each rotatably connected to said main support body so that rotating said main support body in said first direction of rotation and second direction of rotation results in said main support body and said first actuating portion being rotated in said first direction of rotation and in said first coupler being actuated by said first actuating portion , and respectively in said main support body and said second actuating portion being rotated in said second direction of rotation and said second coupler being actuated by said second actuating portion .
Temperature regulation device , notably a cooling device, for an electrical component liable to give off heat during operation, notably for an electrical energy storage module, this device having an upper plate and a lower plate joined to the upper plate such that the plates together form a plurality of circulation channels for a heat transfer fluid, notably a refrigerant fluid, notably a fluid selected from the following refrigerant fluids R134a, R1234yf and R744, in which device at least some of the channels lead into at least one diverting chamber, by virtue of which the fluid can make a diversion , in which device at least one of the diverting chamber and the channels has a mechanical reinforcing element formed on a wall of this diverting chamber or of one of the channels, this reinforcing element being designed to improve the mechanical resistance of the chamber and/or of the channel to potential deformations under the action of high pressure, characterized in that the one or more reinforcing elements are formed by stamping.
A method for producing an optical article , the method comprising: (b) injecting to a mold cavity with a thermoplastic material, the mold cavity including a Fresnel surface ; (c) applying a compacting pressure to the thermoplastic material; (d) raising and controlling the surface temperature of the mold cavity to a heating temperature at least 11,1 °C higher than a cooling temperature; and (e) lowering and controlling the temperature of the mold cavity to the cooling temperature at least 2.78°C lower than a softening temperature determined by using Vicat softening test according to ASTM publication D 1525-91 of a thermoplastic material to form an optical article , characterized in that before step (b) of injecting the mold cavity with the thermoplastic material, the method comprises a step (a) of setting the surface temperature of the mold cavity to said cooling temperature at least 2.78°C lower than the softening temperature. (b) injecting to a mold cavity with a thermoplastic material, the mold cavity including a Fresnel surface ; (c) applying a compacting pressure to the thermoplastic material; (d) raising and controlling the surface temperature of the mold cavity to a heating temperature at least 11,1 °C higher than a cooling temperature; and (e) lowering and controlling the temperature of the mold cavity to the cooling temperature at least 2.78°C lower than a softening temperature determined by using Vicat softening test according to ASTM publication D 1525-91 of a thermoplastic material to form an optical article ,
A white dry ink pulverized toner, comprising: a resin and 15% - 45% TiO2 pigment melt mixed with the resin in a twin screw extruder resulting in an extruded mix, the extruded mix being pulverized in a fluid bed jet mill and classified to a target median size of from 7 microns to 12 microns, the pulverized particles blended in a mixer with surface additives including silica, titania and zinc stearate (ZnSt), wherein the TiO2 pigment has a silica and alumina pre-treatment and a mean size of 275-325 nm, wherein the resin includes a combination of a propoxylated bisphenol-A / fumaric acid resin and a gel resin made by crosslinking the propoxylated bisphenol-A / fumaric acid resin, wherein the white dry ink pulverized toner has a developer charge between 10 and 50 μC/gram as measured according to the description and a L ∗ of at least 75 at a toner mass per unit area (TMA) of less than or equal to 1.2 mg/cm 2 , wherein L ∗ is measured by fusing toner layers on black substrates having a lightness (L ∗ ) of 5, and measuring the L ∗ of the white toner layer.
A grasper device for minimally-invasive surgery, which grasper device is configured to be attached to a support tool , the grasper device comprising two jaws , each of said jaws having: ▪ an elastically-deformable front element , which, in operation, is in contact with an item to be grasped ; and ▪ an elastically-deformable back support element , fixed to the front element and configured to receive a grasping force (F z ), which support element has a higher modulus of elasticity than the front element being less elastically-deformable, wherein said front element and said support element each develop according to a main longitudinal direction (x) and are fixed to one another along respective longitudinal edge portions so as to define a tubular hollow structure , the overall arrangement being such that when the grasping force (F z ) is applied to said support element it deforms and transmits such force to the front element which, in turn, deforms, both the front element and the support element deforming in a main deforming transverse direction ( y ) that is orthogonal to said main longitudinal direction ( x ) and to the grasping force (F z ). ▪ an elastically-deformable front element , which, in operation, is in contact with an item to be grasped ; and ▪ an elastically-deformable back support element , fixed to the front element and configured to receive a grasping force (F z ), which support element has a higher modulus of elasticity than the front element being less elastically-deformable,
A method of separating an analyte from a sample, the method comprising: flowing a mobile phase through a chromatography column wherein the mobile phase comprises about 0.005% (v/v) to about 0.20% (v/v) difluoroacetic acid additive, the difluoroacetic acid additive comprising less than about 100 ppb of any individual metal impurity; injecting a sample comprising the analyte into the mobile phase; and separating the analyte from the sample. flowing a mobile phase through a chromatography column wherein the mobile phase comprises about 0.005% (v/v) to about 0.20% (v/v) difluoroacetic acid additive, the difluoroacetic acid additive comprising less than about 100 ppb of any individual metal impurity; injecting a sample comprising the analyte into the mobile phase; and separating the analyte from the sample.
A phosphorescent thermoplastic composite layered structure having: multiple layered elements stacked upon each other, and each one of the multiple layered elements having a polymer matrix; and a reinforcing fiber combined with the polymer matrix; wherein the polymer matrix comprises a thermoplastic resin and a phosphorescent compound , the phosphorescent compound is dispersed in the thermoplastic resin and has multiple particles distributed inside the thermoplastic resin , and the reinforcing fiber is combined with the polymer matrix of the multiple layered elements and each two adjacent ones of the multiple layered elements stacked upon each other have an angle formed therebetween. multiple layered elements stacked upon each other, and each one of the multiple layered elements having a polymer matrix; and a reinforcing fiber combined with the polymer matrix; a polymer matrix; and a reinforcing fiber combined with the polymer matrix; wherein the polymer matrix comprises a thermoplastic resin and a phosphorescent compound , the phosphorescent compound is dispersed in the thermoplastic resin and has multiple particles distributed inside the thermoplastic resin , and the reinforcing fiber is combined with the polymer matrix of the multiple layered elements and each two adjacent ones of the multiple layered elements stacked upon each other have an angle formed therebetween.
An aircraft galley oven , comprising: an oven body ; and an oven door hingedly coupled to the oven body, the oven door including: a first continuous fiber reinforced thermoplastic (CFRTP) sheet defining at least a portion of an exterior surface of the oven door; a second CFRTP sheet defining at least a portion of an interior surface of the oven door; an oven door latching mechanism (140; 150); and an insulating layer , characterized by one or more ribbed structures disposed on at least one of the first CFRTP sheet or the second CFRTP sheet; wherein the oven door latching mechanism is disposed within one or more recesses within the one or more ribbed structures; the insulating layer is coupled to at least one of the one or more ribbed structures; and the first CFRTP sheet is bent or curved around one or more side, top, or bottom surfaces of the oven door so that the first CFRTP sheet and the second CFRTP sheet are coupled together to seal the oven door. an oven body ; and an oven door hingedly coupled to the oven body, the oven door including: a first continuous fiber reinforced thermoplastic (CFRTP) sheet defining at least a portion of an exterior surface of the oven door; a second CFRTP sheet defining at least a portion of an interior surface of the oven door; an oven door latching mechanism (140; 150); and an insulating layer , characterized by one or more ribbed structures disposed on at least one of the first CFRTP sheet or the second CFRTP sheet; wherein the oven door latching mechanism is disposed within one or more recesses within the one or more ribbed structures; the insulating layer is coupled to at least one of the one or more ribbed structures; and the first CFRTP sheet is bent or curved around one or more side, top, or bottom surfaces of the oven door so that the first CFRTP sheet and the second CFRTP sheet are coupled together to seal the oven door. a first continuous fiber reinforced thermoplastic (CFRTP) sheet defining at least a portion of an exterior surface of the oven door; a second CFRTP sheet defining at least a portion of an interior surface of the oven door; an oven door latching mechanism (140; 150); and an insulating layer , characterized by one or more ribbed structures disposed on at least one of the first CFRTP sheet or the second CFRTP sheet; wherein the oven door latching mechanism is disposed within one or more recesses within the one or more ribbed structures; the insulating layer is coupled to at least one of the one or more ribbed structures; and the first CFRTP sheet is bent or curved around one or more side, top, or bottom surfaces of the oven door so that the first CFRTP sheet and the second CFRTP sheet are coupled together to seal the oven door.
A non-luminescent pair system for use in detecting and monitoring molecular interactions, e.g., protein-protein, protein-DNA, protein-RNA, RNA-DNA, protein-small molecule, or RNA-small-molecule interactions, said system comprising: (a) a non-luminescent peptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 390 or SEQ ID NO: 2271, wherein a detectable bioluminescent signal is produced in the presence of a substrate when the peptide associates with a polypeptide consisting of SEQ ID NO: 440; and (b) a non-luminescent polypeptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 440, wherein the polypeptide comprises two or more amino acid differences from SEQ ID NO: 440, and wherein a detectable bioluminescent signal is produced in the presence of a substrate when the polypeptide associates with a polypeptide consisting of SEQ ID NO: 2; wherein the detectable bioluminescent signal is produced in the presence of a substrate when the non-luminescent peptide associates with the non-luminescent polypeptide. (a) a non-luminescent peptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 390 or SEQ ID NO: 2271, wherein a detectable bioluminescent signal is produced in the presence of a substrate when the peptide associates with a polypeptide consisting of SEQ ID NO: 440; and (b) a non-luminescent polypeptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 440, wherein the polypeptide comprises two or more amino acid differences from SEQ ID NO: 440, and wherein a detectable bioluminescent signal is produced in the presence of a substrate when the polypeptide associates with a polypeptide consisting of SEQ ID NO: 2;
A heat exchanger comprising a first collection chamber and a first connection block connected to the first collection chamber , the connection block comprising an inlet/outlet opening for a heat exchange fluid, wherein the first connection block comprises at least two distribution openings , connected fluidically with a first opening , wherein the distribution openings open directly into the first collection chamber , and wherein at least one distribution opening is in the shape of an oblong, characterized in that a central axis (41c, 42c 43c) of at least one distribution opening , in particular all distribution openings , is parallel to a central axis of the first opening , and wherein at least two distribution openings have different depth. wherein the first connection block comprises at least two distribution openings , connected fluidically with a first opening , wherein the distribution openings open directly into the first collection chamber , and wherein at least one distribution opening is in the shape of an oblong, characterized in that a central axis (41c, 42c 43c) of at least one distribution opening , in particular all distribution openings , is parallel to a central axis of the first opening , and wherein at least two distribution openings have different depth.
An elevator system having a predetermined maximum laden mass (Q MAX ), comprising: a car having a predetermined car mass value (M cab ), a counterweight having a counterweight mass value (M CP ) that is strictly less than the mass of the car plus half the maximum laden mass, said counterweight mass (M PC ) is chosen equal to the mass of the car (M cab ) added with a balancing load value (Q eq ), said balancing load (Q eq ) being equal to 32% of the predetermined maximum laden value (Q MAX ); a control device comprising receiving means for receiving a current measured load value (Q mes ), processing means for calculating a speed value according to the current measured load value and transmission means for transmitting a control signal so as to cause the car to move at the calculated speed, said elevator system further comprising two pulleys , to be installed at the respective ends of the elevator shaft, a traction pulley installed at the upper end of the elevator shaft and a pulley installed at the lower end of the elevator shaft; and wherein at least one of the car and the counterweight is mounted on at least one linear element that passes via the two pulleys so as to form a closed loop with said at least one of the car and the counterweight, to allow the at least one linear element to be tensioned to the open voltage and to provide adherent contact with the pulleys; wherein the linear element comprises a belt with a flat cross-section. a car having a predetermined car mass value (M cab ), a counterweight having a counterweight mass value (M CP ) that is strictly less than the mass of the car plus half the maximum laden mass, said counterweight mass (M PC ) is chosen equal to the mass of the car (M cab ) added with a balancing load value (Q eq ), said balancing load (Q eq ) being equal to 32% of the predetermined maximum laden value (Q MAX ); a control device comprising receiving means for receiving a current measured load value (Q mes ), processing means for calculating a speed value according to the current measured load value and transmission means for transmitting a control signal so as to cause the car to move at the calculated speed, said elevator system further comprising two pulleys , to be installed at the respective ends of the elevator shaft, a traction pulley installed at the upper end of the elevator shaft and a pulley installed at the lower end of the elevator shaft; and wherein at least one of the car and the counterweight is mounted on at least one linear element that passes via the two pulleys so as to form a closed loop with said at least one of the car and the counterweight, to allow the at least one linear element to be tensioned to the open voltage and to provide adherent contact with the pulleys; wherein the linear element comprises a belt with a flat cross-section.
Object comprising a card holder for cards and a money holder for money, wherein the card holder has a card storage space for a stack of one or more cards and the money holder has a money storage space for money, wherein the money storage space is designed such that the money is stored loosely and the money holder has a money access opening designed to access the money storage space which money access opening can be closed with the card holder , to prevent passage of money; and CHARACTERIZED IN THAT the card and money holder are embodied as separate parts and mutually loosely stacked urged towards each other by an elastic spring means provided by an elastic stretched rubber band provided as a closed loop; and one of the holders can slide parallel to the card within the card storage space to open and close the money access opening, wherein said sliding is allowed since the rubber band surrounds the card holder and money holder and keeps these pressed onto each other.
Floating body (100.n, 100'n) comprising at least one foam glass element (Pn), wherein at least one support structure (200.n, 200'n) comprising at least one support element (TX, TY) is arranged in and/or on the at least one foam glass element (Pn), wherein the at least one foam glass element (Pn) and the at least one support structure (200.n, 200'n) form the floating body (100.n, 100'n) in the assembled state, wherein the at least one support structure (200.n, 200'n) is formed in one part or in several parts and, in its assembled state, is arranged in an integrated manner in a predeterminable number (n) of foam glass elements (Pn) having cavities, characterised in that the foam glass element (Pn) is formed in several parts from a predeterminable number (n) of plates (Pn) which are connected to one another in layers (Sn) as a sandwich and are bonded to one another in the composite to form the floating body (100.n, 100'n). the at least one support structure (200.n, 200'n) is formed in one part or in several parts and, in its assembled state, is arranged in an integrated manner in a predeterminable number (n) of foam glass elements (Pn) having cavities, characterised in that the foam glass element (Pn) is formed in several parts from a predeterminable number (n) of plates (Pn) which are connected to one another in layers (Sn) as a sandwich and are bonded to one another in the composite to form the floating body (100.n, 100'n).