mhurhangee/ep-ind-claims huggingface dataset:
An electric device for cooling and storing foods, preferably for household use, comprising: - a first compartment for storing foods; - means for cooling air used for refrigerating the first compartment; - a conduit for placing the cooling means and the first compartment in fluid communication with each other; - air movement means which, when activated, force the air to flow from the cooling means to the first compartment; - a non-return valve operatively associated with the conduit, said non-return valve comprising a membrane and a mount operatively connected to each other; the mount comprising an opening for the passage of the air, the opening forming part of the conduit; the membrane comprising at least one first part that can move between a first position where it faces and is in contact with the mount in order to occlude the opening and a second position where it is at least partly spaced from the mount; the air flow produced by the movement means moving along the conduit from the cooling means to the first compartment through the opening of the mount and applying pressure on the first part of the membrane causing the latter to adopt the second position; the electric device being characterized by further comprising a shutoff valve for obstructing the conduit and which, when closed, prevents the fluid communication between the first compartment and the cooling means; wherein the first part of the membrane returns to the first position in contact with the mount, when the air flow stops, so as to obstruct the passage of the air from the first compartment to the cooling means even when the shutoff valve is open and wherein the mount or the first part of the membrane comprises at least one protuberance which, when the first part of the membrane is in the first position, extends respectively towards the first part of the membrane or towards the mount, forming at least one zone of linear or point contact between the mount and the first part of the membrane. - a first compartment for storing foods; - means for cooling air used for refrigerating the first compartment; - a conduit for placing the cooling means and the first compartment in fluid communication with each other; - air movement means which, when activated, force the air to flow from the cooling means to the first compartment; - a non-return valve operatively associated with the conduit, said non-return valve comprising a membrane and a mount operatively connected to each other; the mount comprising an opening for the passage of the air, the opening forming part of the conduit; the membrane comprising at least one first part that can move between a first position where it faces and is in contact with the mount in order to occlude the opening and a second position where it is at least partly spaced from the mount;
A guide device for a panel such as a window pane, said guide device being mountable in a supporting structure, such as a vehicle door, said device comprising upper guide rails (11, 14), which are provided with a seal, and lower guide rails such that the panel is slidable by two opposite edges (41, 44) in the seal of the upper guide rails (11, 14) and in the lower guide rails, between the upper guide rails (11, 14) and the lower guide rails: - a first position in which the panel is engaged in the seal of the upper guide rails (11, 14); anda second position in which the panel is engaged in the seal of the lower guide rails. - a second position in which the panel is extended from the seal of the upper guide rails (11, 14) and engaged in the lower guide rails, the seal having, in an end region for engagement of the panel in the seal when the panel moves out of its second position, the shape of an engagement cone, the width of which decreases in the direction of displacement of the panel towards its first position, and the seal comprises two wings, 22) comprising on their inner faces lips (24 - 26) between which the panel is able to engage and whose spacing is maximum at the entry of the engagement cone and decreases in the direction of sliding of the panel towards its first position, characterised in that, to ensure the progressive reduction of the engagement cone, the free ends of the lips (24 - 26) are permanently in contact with the wings (21, 22) of the seal at the entrance to the engagement cone and progressively move away from the wings (21, 22) in the direction of the engagement of the panel in the cone. - a first position in which the panel is engaged in the seal of the upper guide rails (11, 14); anda second position in which the panel is engaged in the seal of the lower guide rails. - a second position in which the panel is extended from the seal of the upper guide rails (11, 14) and engaged in the lower guide rails, the seal having, in an end region for engagement of the panel in the seal when the panel moves out of its second position, the shape of an engagement cone, the width of which decreases in the direction of displacement of the panel towards its first position, and the seal comprises two wings, 22) comprising on their inner faces lips (24 - 26) between which the panel is able to engage and whose spacing is maximum at the entry of the engagement cone and decreases in the direction of sliding of the panel towards its first position, characterised in that, to ensure the progressive reduction of the engagement cone, the free ends of the lips (24 - 26) are permanently in contact with the wings (21, 22) of the seal at the entrance to the engagement cone and progressively move away from the wings (21, 22) in the direction of the engagement of the panel in the cone.
A porous scintillator crystal comprising a porous structure, wherein the porous structure is a phase-separated structure in which voids are formed, the phase-separated structure including a single crystalline phase that forms a matrix continuously surrounding outer peripheries of the voids and wherein at least one void in the porous structure extends in a direction perpendicular to a plane of the porous scintillator crystal.
An electrical adapter, comprising: a post portion; an electrical terminal (152, 154, 156) extending from the post portion; a cover slideably engaged with the post portion to selectively cover the electrical terminal (152, 154, 156); a bed portion engaged with the post portion, the post portion extending generally perpendicularly from the bed portion; and a sled removeably connected to the bed portion, wherein movement of the sled away from the post portion extends the cover to cover the electrical terminal (152, 154, 156). a post portion; an electrical terminal (152, 154, 156) extending from the post portion; a cover slideably engaged with the post portion to selectively cover the electrical terminal (152, 154, 156); a bed portion engaged with the post portion, the post portion extending generally perpendicularly from the bed portion; and a sled removeably connected to the bed portion, wherein movement of the sled away from the post portion extends the cover to cover the electrical terminal (152, 154, 156).
Advanced process control process which can be applied to units for the oligomerization of ethylene to 1-butene which are operated in a reactor in the presence of a homogeneous catalyst in the liquid phase and at the bubble point, characterized in that the parameters which are simultaneously and continuously controlled, termed the target parameters, are the production of 1-butene (Dprod), the reactor pressure (Preac) and the reactor temperature (Treac), and the action variables are the feed flow rate (Dch), the flow rate of each of the components of the injected catalyst, namely T2 based on titanium and LC based on aluminium, and the flow rate of cooling liquid which is supplied to the exchanger or exchangers of the catalyst recycling loop or loops, with the multivariable controller of the advanced process control process, termed the APC controller, acting as follows: - controlling the reactor pressure (Preac) by varying the quantity of catalyst injected, by acting on the feed flow rate in order to compensate for the effects of pressure on the conversion which affects the production, - controlling the production (Dprod) by the feed flow rate, by acting on the quantity of catalyst in order to compensate for the effects on the pressure, - controlling the reactor temperature (Treac) by acting on the flow rate of cooling liquid which is supplied to the exchanger or exchangers of the catalyst recycling loop or loops, the APC controller being installed in a computer, said computer carrying out the following operations: - recovering signals for the action variables and the target variables, - generating new setpoints for the action variables, and - sending the new setpoints to the APC controller. - controlling the reactor pressure (Preac) by varying the quantity of catalyst injected, by acting on the feed flow rate in order to compensate for the effects of pressure on the conversion which affects the production, - controlling the production (Dprod) by the feed flow rate, by acting on the quantity of catalyst in order to compensate for the effects on the pressure, - controlling the reactor temperature (Treac) by acting on the flow rate of cooling liquid which is supplied to the exchanger or exchangers of the catalyst recycling loop or loops, - recovering signals for the action variables and the target variables, - generating new setpoints for the action variables, and - sending the new setpoints to the APC controller.
A gas sensing device for monitoring the presence of oxygen in a fuel tank, the gas sensing device comprising: a housing having a first end and a second end, the second end having an inlet and an outlet, the housing operable to be partially disposed within a fuel tank; a probe, the probe including: a fiber optic (124a, 124b) partially disposed within the housing, the fiber optic (124a, 124b) extending through the housing such that an end of the fiber optic (124a, 124b) extends beyond the first end of the housing; and a sensor disposed on the end of the fiber optic (124a, 124b) that extends beyond the housing for sensing oxygen gas surrounding the sensor; at least one temperature sensor (110a, 110b) for monitoring the temperature of the probe; and a first passageway disposed within the housing and about the fiber optic (124a, 124b), the first passageway being in fluid communication with both the outlet and the inlet for conducting a temperature adjusting medium from the inlet to the first passageway for adjusting and maintaining a set temperature of the probe. a housing having a first end and a second end, the second end having an inlet and an outlet, the housing operable to be partially disposed within a fuel tank; a probe, the probe including: a fiber optic (124a, 124b) partially disposed within the housing, the fiber optic (124a, 124b) extending through the housing such that an end of the fiber optic (124a, 124b) extends beyond the first end of the housing; and a sensor disposed on the end of the fiber optic (124a, 124b) that extends beyond the housing for sensing oxygen gas surrounding the sensor; at least one temperature sensor (110a, 110b) for monitoring the temperature of the probe; and a first passageway disposed within the housing and about the fiber optic (124a, 124b), the first passageway being in fluid communication with both the outlet and the inlet for conducting a temperature adjusting medium from the inlet to the first passageway for adjusting and maintaining a set temperature of the probe. a fiber optic (124a, 124b) partially disposed within the housing, the fiber optic (124a, 124b) extending through the housing such that an end of the fiber optic (124a, 124b) extends beyond the first end of the housing; and a sensor disposed on the end of the fiber optic (124a, 124b) that extends beyond the housing for sensing oxygen gas surrounding the sensor; at least one temperature sensor (110a, 110b) for monitoring the temperature of the probe; and
A subsea unit comprising a component reservoir containing a heat generating component and a first liquid, and a cooling reservoir containing a second liquid and being arranged in thermal conductive connection with the component reservoir, wherein the cooling reservoir is loop-shaped, thereby promoting a convective flow of the second liquid in use, wherein the cooling reservoir comprises an outer heat exchanging device arranged in direct contact with the water surrounding the subsea unit, in order to promote the heat transfer from the second liquid to the surrounding water in use, said first liquid being one which has suitable electrical insulating properties in order to electrically insulate the heat generating component, and said second liquid being one which has suitable heat transfer properties in order to provide cooling to the component reservoir, characterised in that the outer heat exchanging device is arranged vertically higher than the component reservoir, in order to further promote the convective flow of the second liquid in use, wherein the component reservoir and the cooling reservoir is pressure compensated, whereby the pressure inside the component reservoir and the pressure inside the cooling reservoir correspond to the pressure of the water surrounding the subsea unit.
Intelligent Transportation System, ITS, service station, comprising: a receiver having an area of radio coverage and being configured to receive a first Collective Perception Message, CPM, from a first ITS station at a first position (P B) within the coverage area, the first CPM including first sensor data (sd i) on at least one first free space area perceived by the first ITS station, and an aggregator connected to the receiver and configured to aggregate said first sensor data (sd i) with at least one second sensor data (sd i, sd k) on at least one second free space area (B, C) into a third sensor data (sd Σ), which second sensor data (sd i, sd k) either is received via the receiver in a second CPM from a second ITS station at a second position (P C) within the coverage area or is determined by a sensor of the ITS service station, wherein the ITS service station further comprises a transmitter connected to the aggregator and configured to broadcast said third sensor data (sd Σ) in a third CPM. a receiver having an area of radio coverage and being configured to receive a first Collective Perception Message, CPM, from a first ITS station at a first position (P B) within the coverage area, the first CPM including first sensor data (sd i) on at least one first free space area perceived by the first ITS station, and an aggregator connected to the receiver and configured to aggregate said first sensor data (sd i) with at least one second sensor data (sd i, sd k) on at least one second free space area (B, C) into a third sensor data (sd Σ), which second sensor data (sd i, sd k) either is received via the receiver in a second CPM from a second ITS station at a second position (P C) within the coverage area or is determined by a sensor of the ITS service station, wherein the ITS service station further comprises a transmitter connected to the aggregator and configured to broadcast said third sensor data (sd Σ) in a third CPM.
A lighting/sounding device for a balloon activated by inflation of the balloon (9, 190, 290), comprising a lighting lamp/sounder (1, 110, 210), a battery (4, 140, 240), an electrical circuit for the lighting lamp/sounder and a housing (5, 150, 250) at least covering the lighting lamp/sounder (1, 110, 210), wherein the housing (5, 150, 250) comprises: an inlet end to let air or other gases into the housing (5, 150, 250), an outlet end to discharge air or other gases from the housing (5, 150, 250), and an air channel (6, 160, 260) to connect the inlet end and the outlet end so that a through passage for air flow is formed within the housing (5, 150, 250); and the lighting lamp/sounder (1, 110, 210) is provided within the air channel (6, 160, 260) and has a sealing device (2, 120, 220) for sealing off the air channel (6, 160, 260), characterized in that the lighting lamp/sounder (1, 110, 210) has a supporting and fixing holder (3, 130, 230) that covers the lighting lamp/sounder (1, 110, 210) at least from one cross section so that the lighting lamp/sounder (1, 110, 210) has an outer wall on said cross section, and said outer wall is sleeved with the sealing device (2, 120, 220) in a ring-shaped structure, and is located within the air channel (6, 160, 260), such that when the device is installed inside a balloon and the balloon is inflated the air pushes the holder (3, 130, 230) to slide towards the outlet end thereby bringing the sealing device (2, 120, 220) to seal off the air channel (16, 160, 260) and the electrical circuit of the lighting lamp/sounder is connected and the lighting lamp/sounder is activated to operate. an inlet end to let air or other gases into the housing (5, 150, 250), an outlet end to discharge air or other gases from the housing (5, 150, 250), and an air channel (6, 160, 260) to connect the inlet end and the outlet end so that a through passage for air flow is formed within the housing (5, 150, 250); and the lighting lamp/sounder (1, 110, 210) is provided within the air channel (6, 160, 260) and has a sealing device (2, 120, 220) for sealing off the air channel (6, 160, 260), characterized in that the lighting lamp/sounder (1, 110, 210) has a supporting and fixing holder (3, 130, 230) that covers the lighting lamp/sounder (1, 110, 210) at least from one cross section so that the lighting lamp/sounder (1, 110, 210) has an outer wall on said cross section, and said outer wall is sleeved with the sealing device (2, 120, 220) in a ring-shaped structure, and is located within the air channel (6, 160, 260), such that when the device is installed inside a balloon and the balloon is inflated the air pushes the holder (3, 130, 230) to slide towards the outlet end thereby bringing the sealing device (2, 120, 220) to seal off the air channel (16, 160, 260) and the electrical circuit of the lighting lamp/sounder is connected and the lighting lamp/sounder is activated to operate.
A method for detecting one or more target molecules in a sub-population of cells, the method comprising: a) contacting a sample comprising a complex mixture of cells with two unique binding agents, wherein the two unique binding agents are proximity oligonucleotide probes designed to hybridize to complementary segments of a target mRNA that are in close proximity to each other, and wherein at least one of the two oligonucleotide probes is attached to an oligonucleotide epitope specific barcode that represents the identities of the target molecules; b) linking the proximity oligonucleotide probes together using bridge oligonucleotides; c) sequentially attaching two or more oligonucleotide assayable polymer subunits to the epitope specific barcodes using a split-pool combinatorial synthesis approach to create unique cell origination barcodes that represent the identities of individual cells to which the unique proximity oligonucleotide probes have bound; d) selectively amplifying and sequencing the epitope specific barcode and cell origination barcodes associated with the proximity oligonucleotide probes to identify a sub-population of cells expressing the target RNA. a) contacting a sample comprising a complex mixture of cells with two unique binding agents, wherein the two unique binding agents are proximity oligonucleotide probes designed to hybridize to complementary segments of a target mRNA that are in close proximity to each other, and wherein at least one of the two oligonucleotide probes is attached to an oligonucleotide epitope specific barcode that represents the identities of the target molecules; b) linking the proximity oligonucleotide probes together using bridge oligonucleotides; c) sequentially attaching two or more oligonucleotide assayable polymer subunits to the epitope specific barcodes using a split-pool combinatorial synthesis approach to create unique cell origination barcodes that represent the identities of individual cells to which the unique proximity oligonucleotide probes have bound; d) selectively amplifying and sequencing the epitope specific barcode and cell origination barcodes associated with the proximity oligonucleotide probes to identify a sub-population of cells expressing the target RNA.
A catalyst composition comprising: - a carrier substrate; - a layer (i) coated on said carrier substrate comprising at least one precious group metal; - a layer (ii) comprising Rh; - a layer (iii) comprising Pd and/or Pt and being substantially free of Ce, Ba and Rh, wherein the layer (iii) has a lower weight than the layer (i) or the layer (ii), wherein the precious group metal is at least one metal selected from Pt, Pd, Rh, Au, and Ir, and wherein the layer (ii) is coated over the layer (i) and the layer (iii) is coated over the layer (ii), or wherein the layer (iii) is coated over the layer (i) and the layer (ii) is coated over the layer (iii). - a carrier substrate; - a layer (i) coated on said carrier substrate comprising at least one precious group metal; - a layer (ii) comprising Rh; - a layer (iii) comprising Pd and/or Pt and being substantially free of Ce, Ba and Rh,
A latch for a motor vehicle door leaf including: - a backplate intended to be fastened to a motor vehicle door leaf, - a bolt and a bolt axis, the bolt being intended to cooperate with a strike and likely to rotate about the bolt axis between an open position and a closed position of the latch, and - a pawl including a pivoting pawl axis and a retaining end capable of cooperating with said bolt in the closed position of the latch in order to prevent the rotation of said bolt, characterized in that said latch includes a guide member (41; 42; 43; 44; 45; 46) in which at least one guide hole is formed for guiding in rotation the pawl axis and in that the latch includes at least one reinforcing pillar (14, 15; 21, 22) holding the guide member, said guide member (41; 42; 43; 44; 45; 46) being disjoint from the bolt axis. - a backplate intended to be fastened to a motor vehicle door leaf, - a bolt and a bolt axis, the bolt being intended to cooperate with a strike and likely to rotate about the bolt axis between an open position and a closed position of the latch, and - a pawl including a pivoting pawl axis and a retaining end capable of cooperating with said bolt in the closed position of the latch in order to prevent the rotation of said bolt,