mhurhangee/patent-ind-claim-en huggingface dataset:
A passive in-line valve configured to be actuated without an external control, comprising: a valve housing defining an inlet , an outlet , and a flow path between the inlet and the outlet ; a piston housing extending inwardly from the housing ; a valve piston movably disposed within the piston housing , the valve piston including an upstream side and a downstream side , wherein the valve piston is configured to define an upstream cavity between the piston housing and the upstream side of the valve piston and wherein the downstream side is in fluid communication with outlet static pressure, wherein the valve piston is configured to move between an open position where fluid can flow from the inlet, through the flow path, to the outlet, and a closed position where the valve piston prevents flow from the inlet to the outlet, characterised by a control mechanism disposed at least partially within the housing and configured to port outlet static pressure to the upstream cavity in a first state such that pressure is equalized on the valve piston, wherein the control mechanism is configured to port inlet pressure to the upstream cavity in a second state such that a differential pressure on the valve piston acts on the valve piston, wherein the control mechanism is configured to transition from the first state to the second state at a first threshold valve delta pressure, wherein the control mechanism is configured to transition from the second state to the first state at a second threshold valve delta pressure. a valve housing defining an inlet , an outlet , and a flow path between the inlet and the outlet ; a piston housing extending inwardly from the housing ; a valve piston movably disposed within the piston housing , the valve piston including an upstream side and a downstream side , wherein the valve piston is configured to define an upstream cavity between the piston housing and the upstream side of the valve piston and wherein the downstream side is in fluid communication with outlet static pressure, wherein the valve piston is configured to move between an open position where fluid can flow from the inlet, through the flow path, to the outlet, and a closed position where the valve piston prevents flow from the inlet to the outlet, characterised by a control mechanism disposed at least partially within the housing and configured to port outlet static pressure to the upstream cavity in a first state such that pressure is equalized on the valve piston, wherein the control mechanism is configured to port inlet pressure to the upstream cavity in a second state such that a differential pressure on the valve piston acts on the valve piston, wherein the control mechanism is configured to transition from the first state to the second state at a first threshold valve delta pressure, wherein the control mechanism is configured to transition from the second state to the first state at a second threshold valve delta pressure.
Spacer for road safety barrier of the type comprising a post and a rail connected to the post via the intermediary of the spacer and a connector, the spacer comprising a rail support comprising: - a front face designed to be fastened to the rail, - a rear face designed to be fastened to the post and - a flange connecting the front face to the rear face, characterised by the front face comprising a notch emerging on the upper edge of the front face, the notch comprising a connector housing , located in the lower portion of the notch and two convergent lateral edges connecting the connector housing to the upper edge of the front face so that the connector which provides a connection between the rail and the rail support can force passage along the length of the notch when it is subjected to an upward force greater than a threshold value. - a front face designed to be fastened to the rail, - a rear face designed to be fastened to the post and - a flange connecting the front face to the rear face,
A radio frequency, RF, semiconductor device comprising: a semiconductor-on-insulator substrate ; an RF ground plane layer on the semiconductor-on-insulator substrate comprising a highly doped semiconductor layer and a conductive superlattice above the highly doped semiconductor layer, the conductive superlattice comprising a plurality of stacked groups of layers (45a-45n), each group of layers comprising a plurality of stacked doped base semiconductor monolayers defining a doped base semiconductor portion (46a-46n), and at least one non-semiconductor monolayer constrained within a crystal lattice of adjacent doped base semiconductor portions; a body above the RF ground plane layer; spaced apart source and drain regions adjacent the body and defining a channel region in the body; and a gate overlying the channel region. a semiconductor-on-insulator substrate ; an RF ground plane layer on the semiconductor-on-insulator substrate comprising a highly doped semiconductor layer and a conductive superlattice above the highly doped semiconductor layer, the conductive superlattice comprising a plurality of stacked groups of layers (45a-45n), each group of layers comprising a plurality of stacked doped base semiconductor monolayers defining a doped base semiconductor portion (46a-46n), and at least one non-semiconductor monolayer constrained within a crystal lattice of adjacent doped base semiconductor portions; a body above the RF ground plane layer; spaced apart source and drain regions adjacent the body and defining a channel region in the body; and a gate overlying the channel region.
A communication connection establishment method performed by a system comprising a main device and a mediation device, the method comprising: • performing, by the mediation device, a first communication connection to at least three candidate devices, to acquire connection configuration information of the candidate devices, and saving the acquired connection configuration information (S1); • before or after or when the mediation device performs the first communication connection to the at least three candidate devices, determining, by the mediation device, that one of the candidate devices is the main device and the other candidate devices are target devices (S2); • matching, by the mediation device, the connection configuration information of the main device with the connection configuration information of each of the target devices, to obtain matching connection configuration information; • sending, by the mediation device, one handover initiate request to the main device, wherein the handover initiate request comprises all the matching connection configuration information; and • receiving, by the mediation device, one handover initiate response sent by the main device, wherein the handover initiate response comprises connection configuration information selected by the main device for each of the target devices, so that the main device initiates a second communication connection to each of the target devices (S 3 ). • performing, by the mediation device, a first communication connection to at least three candidate devices, to acquire connection configuration information of the candidate devices, and saving the acquired connection configuration information (S1); • before or after or when the mediation device performs the first communication connection to the at least three candidate devices, determining, by the mediation device, that one of the candidate devices is the main device and the other candidate devices are target devices (S2); • matching, by the mediation device, the connection configuration information of the main device with the connection configuration information of each of the target devices, to obtain matching connection configuration information; • sending, by the mediation device, one handover initiate request to the main device, wherein the handover initiate request comprises all the matching connection configuration information; and • receiving, by the mediation device, one handover initiate response sent by the main device, wherein the handover initiate response comprises connection configuration information selected by the main device for each of the target devices, so that the main device initiates a second communication connection to each of the target devices (S 3 ).
Method for assigning a position in relation to a spatial reference point of at least one covering element of a floor covering in the form of a plate body for integration into a control system , wherein the covering element has a functional unit having an electrical functionality, wherein the covering element comprises a carrier plate and a top cover layer above the carrier plate , wherein a control device of the control system determines and stores the position of the covering element after receiving an assignment signal characterizing the at least one covering element , which signal is preferably transmitted wirelessly, wherein the covering elements are successively supplied with energy, in particular current, and transmit immediately after the transmission of energy the covering signal as an assignment signal to the control device , so that the assignment of the positions of the covering elements is determined by the control device in accordance with the time of receipt of the respective covering signal . wherein the covering element comprises a carrier plate and a top cover layer above the carrier plate , wherein a control device of the control system determines and stores the position of the covering element after receiving an assignment signal characterizing the at least one covering element , which signal is preferably transmitted wirelessly, wherein the covering elements are successively supplied with energy, in particular current, and transmit immediately after the transmission of energy the covering signal as an assignment signal to the control device , so that the assignment of the positions of the covering elements is determined by the control device in accordance with the time of receipt of the respective covering signal .
A phosphor, selected from the group consisting of the following phosphors: COMPOSITION FORMULA PEAK WAVELENGTH (nm) COLOR CHROMATICITY x y Ca 0.983 AlSiO 0.026 N 2.983 :Eu 0.0175 656.4 0.679 0.321 Ca 0.985 AlSiO 0.023 N 2.985 :Eu 0.0150 654.0 0.675 0.324 Ca 0.988 AlSiO 0.018 N 2.988 :Eu 0.0125 651.6 0.671 0.328 Ca 0.990 AlSiO 0.015 N 2.993 :Eu 0.0100 650.7 0.666 0.333 Ca 0.993 AlSiO 0.011 N 2.993 :Eu 0.0075 647.5 0.661 0.338 Ca 0.995 AlSiO 0.008 N 2.995 :Eu 0.0050 644.2 0.652 0.347 Ca 0.998 AlSiO 0.004 N 2.998 :Eu 0.0025 639.0 0.633 0.364
One or more SGLT-2 inhibitors or pharmaceutically acceptable crystalline forms thereof for use in the treatment and/or prevention of a metabolic disorder in a feline animal in need of such treatment and/or prevention, wherein the metabolic disorder is one or more selected from the group consisting of ketoacidosis, pre-diabetes, diabetes mellitus type 1 or type 2, insulin resistance, obesity, hyperglycemia, impaired glucose tolerance, hyperinsulinemia, dyslipidemia, dysadipokinemia, subclinical inflammation, systemic inflammation, low grade systemic inflammation, hepatic lipidosis, atherosclerosis, inflammation of the pancreas, and/or Syndrome X (metabolic syndrome) and/or loss of pancreatic beta cell function and wherein the one or more SGLT-2 inhibitors are to be administered at a dose of 0.1 to 5.0 mg/kg body mass per day.
A grooming device comprising: a. a handle comprising a proximal end and a distal end , the handle comprising; i. a displacement sensor , and ii. a power source , the power source providing power to the displacement sensor; b. an implement connecting structure comprising a connection element and an eject element , the implement connecting structure being pivotably connected to the proximal end of the handle about a first handle axis (A), and the eject element being moveable within the implement connecting structure along a second handle axis (B), the implement connecting structure further comprising; i. a location element , the location element being pivotably connected to the eject element such that as the implement connecting structure moves about the first handle axis the location element remains stationary relative to the handle and as the eject element moves along the second handle axis the location element is displaced relative to the handle and the displacement sensor detects displacement of the location element; and c. a grooming implement connected to the implement connecting structure. a. a handle comprising a proximal end and a distal end , the handle comprising; i. a displacement sensor , and ii. a power source , the power source providing power to the displacement sensor; i. a displacement sensor , and ii. a power source , the power source providing power to the displacement sensor; b. an implement connecting structure comprising a connection element and an eject element , the implement connecting structure being pivotably connected to the proximal end of the handle about a first handle axis (A), and the eject element being moveable within the implement connecting structure along a second handle axis (B), the implement connecting structure further comprising; i. a location element , the location element being pivotably connected to the eject element such that as the implement connecting structure moves about the first handle axis the location element remains stationary relative to the handle and as the eject element moves along the second handle axis the location element is displaced relative to the handle and the displacement sensor detects displacement of the location element; and i. a location element , the location element being pivotably connected to the eject element such that as the implement connecting structure moves about the first handle axis the location element remains stationary relative to the handle and as the eject element moves along the second handle axis the location element is displaced relative to the handle and the displacement sensor detects displacement of the location element; and c. a grooming implement connected to the implement connecting structure.
An air conditioner having a circulating refrigerant, the air conditioner comprising: a microchannel condenser ; a compressor ; a primary expansion device ; a bypass line for bypassing the primary expansion device, the bypass line having a secondary expansion device ; a sensor for measuring pressure in the air conditioner and/or portions thereof; a controller configured to compare a pressure determined by the sensor to a predetermined high pressure retrieved from a memory of the air conditioner , to identify a high pressure event when the determined pressure exceeds the retrieved predetermined high pressure and to control refrigerant flow through the bypass line , characterised by the fact that upon identification of a first high pressure event the controller is configured to direct at least a portion of the refrigerant into the bypass line and secondary expansion device and upon detection of a second high pressure event of the air conditioner , the controller is configured to restrict operation of one or more compressors in the air conditioner . a microchannel condenser ; a compressor ; a primary expansion device ; a bypass line for bypassing the primary expansion device, the bypass line having a secondary expansion device ; a sensor for measuring pressure in the air conditioner and/or portions thereof; a controller configured to compare a pressure determined by the sensor to a predetermined high pressure retrieved from a memory of the air conditioner , to identify a high pressure event when the determined pressure exceeds the retrieved predetermined high pressure and to control refrigerant flow through the bypass line , characterised by the fact that upon identification of a first high pressure event the controller is configured to direct at least a portion of the refrigerant into the bypass line and secondary expansion device and upon detection of a second high pressure event of the air conditioner , the controller is configured to restrict operation of one or more compressors in the air conditioner .
Pneumatic control unit for controlling a pneumatic pressure comprising: - a housing , - at least one actuator configured to be manually moved along a total distance within the housing and configured to control a pneumatic pressure depending on its position on the total distance , and - a reset mechanism configured to reset the at least one actuator into a position along the total distance if at least one predetermined reset condition is met, wherein the reset mechanism comprising a reset element configured to transmit a reset force or a reset torque to the at least one actuator , wherein the reset element is configured as a slider, characterized in that the predetermined reset condition is the appearance of a pneumatic confirmation pressure. - a housing , - at least one actuator configured to be manually moved along a total distance within the housing and configured to control a pneumatic pressure depending on its position on the total distance , and - a reset mechanism configured to reset the at least one actuator into a position along the total distance if at least one predetermined reset condition is met, wherein the reset mechanism comprising a reset element configured to transmit a reset force or a reset torque to the at least one actuator , wherein the reset element is configured as a slider, characterized in that the predetermined reset condition is the appearance of a pneumatic confirmation pressure. the reset mechanism comprising a reset element configured to transmit a reset force or a reset torque to the at least one actuator , wherein the reset element is configured as a slider, characterized in that the predetermined reset condition is the appearance of a pneumatic confirmation pressure.
A plate , configurated to be implanted in an anatomical structure, comprising: a body comprising: a first surface and a second surface ; a first opening at a first end of the body extending from the first surface to the second surface ; a second opening at a second end of the body extending from the first surface to the second surface ; a third opening positioned between the first opening and the second opening and extending from the first surface to the second surface ; the first surface defining a first boss extending around at least a portion of the first opening and wherein the first boss extends away from the first surface ; and the first surface defining a second boss extending around at least a portion of the second opening and wherein the second boss extends away from the first surface . a first surface and a second surface ; a first opening at a first end of the body extending from the first surface to the second surface ; a second opening at a second end of the body extending from the first surface to the second surface ; a third opening positioned between the first opening and the second opening and extending from the first surface to the second surface ; the first surface defining a first boss extending around at least a portion of the first opening and wherein the first boss extends away from the first surface ; and the first surface defining a second boss extending around at least a portion of the second opening and wherein the second boss extends away from the first surface .
A pharmaceutical composition for use in treating a chronic wound, the pharmaceutical composition comprising: 2,4,4'-trichloro-2'-hydroxydiphenylether (triclosan); and at least one thickener at 0.5 - 8 % by weight of the composition, wherein the composition has a viscosity between 70 000 - 150 000 mPa.s (centipoise (cP)) at between 20-40 °C, wherein the chronic wound is defined as a full thickness skin defect that fails to heal within 3 months. 2,4,4'-trichloro-2'-hydroxydiphenylether (triclosan); and at least one thickener at 0.5 - 8 % by weight of the composition, wherein the composition has a viscosity between 70 000 - 150 000 mPa.s (centipoise (cP)) at between 20-40 °C, wherein the chronic wound is defined as a full thickness skin defect that fails to heal within 3 months.
A compound of formula (A) as follows: wherein R 1 is a monoterpenoid; R 2 is selected from the group consisting of wherein the monoterpenoid moiety is selected from the group consisting of R 1 is a monoterpenoid; R 2 is selected from the group consisting of wherein the monoterpenoid moiety is selected from the group consisting of
A cooling device for a computer module , comprising: a first coolant block configured to be mounted on a first computer component and at least a second coolant block configured to be mounted on a second computer component, wherein each of the first and second coolant blocks comprises an inlet port configured to allow a coolant to flow into the coolant block and an outlet port configured to allow the coolant to flow out of the coolant block , and a connecting structure configured to connect the outlet port of the first coolant block with the inlet port of the second coolant block , characterized in that the connecting structure comprises a distribution plate configured to be mounted onto the first and second coolant blocks , wherein the distribution plate includes a block interconnecting channel configured to connect the outlet port of the first coolant block with the inlet port of the second coolant block for allowing the coolant to flow from said outlet port to said inlet port . a first coolant block configured to be mounted on a first computer component and at least a second coolant block configured to be mounted on a second computer component, wherein each of the first and second coolant blocks comprises an inlet port configured to allow a coolant to flow into the coolant block and an outlet port configured to allow the coolant to flow out of the coolant block , and a connecting structure configured to connect the outlet port of the first coolant block with the inlet port of the second coolant block , characterized in that the connecting structure comprises a distribution plate configured to be mounted onto the first and second coolant blocks , wherein the distribution plate includes a block interconnecting channel configured to connect the outlet port of the first coolant block with the inlet port of the second coolant block for allowing the coolant to flow from said outlet port to said inlet port .
A polyolefin composition comprising: an ethylene polymer; a propylene polymer, wherein the ethylene polymer and the propylene polymer comprise from 70 wt% to 90 wt% of the composition; a propylene-based elastomer comprising 60 wt% to 95 wt% of propylene-derived units, wherein the propylene-based elastomer is present within a range from 1 wt% to 7 wt% based on the weight of the composition; and an ethylene-based plastomer, wherein the ethylene-based plastomer is present within a range from 1 wt% to 7 wt%, based on the weight of the composition. an ethylene polymer; a propylene polymer, wherein the ethylene polymer and the propylene polymer comprise from 70 wt% to 90 wt% of the composition; a propylene-based elastomer comprising 60 wt% to 95 wt% of propylene-derived units, wherein the propylene-based elastomer is present within a range from 1 wt% to 7 wt% based on the weight of the composition; and an ethylene-based plastomer, wherein the ethylene-based plastomer is present within a range from 1 wt% to 7 wt%, based on the weight of the composition.