mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a negative-pressure apparatus for generating a specified negative pressure in a component to be tested and a pressure apparatus for generating a specified test pressure in the component to be tested as well as a test connection for testing the fluid-conducting component , in particular a fluid-conducting fitting and/or a fluid-conducting hose, wherein a component to be tested can be connected to the test connection by an opening , wherein a specified negative pressure can be generated in the component by means of the negative-pressure apparatus, and wherein a specified test pressure can be generated in the component by means of the pressure apparatus, wherein the test connection has a test valve that can be switched between a first switching position and a second switching position, such that the negative pressure can be generated by means of the negative-pressure apparatus and the test pressure can be generated by means of the pressure apparatus one after the other in the component in the state of the component connected to the test connection.
A fiber optic strain locking arrangement (10;110;210) comprising: a cable assembly (14;114;214) having an outer radial surface (18;118;218); an optical fiber strain transmissively coupled to the outer radial surface (18;118;218); and tubing disposed at the outer radial surface (18;118;218) being strain locked to the outer radial surface (18;118;218), characterised in that : the tubing is strain locked to the outer radial surface (18;118;218) through interference fit with granules , wherein: the granules are partially embedded into an inner radial surface of the tubing and the granules are a harder material than the tubing ; and/or the granules are partially embedded into the outer radial surface (18;118;218) and the granules are a harder material than that of the outer radial surface (18;118;218). a cable assembly (14;114;214) having an outer radial surface (18;118;218); an optical fiber strain transmissively coupled to the outer radial surface (18;118;218); and tubing disposed at the outer radial surface (18;118;218) being strain locked to the outer radial surface (18;118;218), characterised in that : the tubing is strain locked to the outer radial surface (18;118;218) through interference fit with granules , wherein: the granules are partially embedded into an inner radial surface of the tubing and the granules are a harder material than the tubing ; and/or the granules are partially embedded into the outer radial surface (18;118;218) and the granules are a harder material than that of the outer radial surface (18;118;218). the granules are partially embedded into an inner radial surface of the tubing and the granules are a harder material than the tubing ; and/or the granules are partially embedded into the outer radial surface (18;118;218) and the granules are a harder material than that of the outer radial surface (18;118;218).
A system for determining a sleep stage transition of a person, the system comprising: heart rate detecting means configured for detecting a heart rate of the person; movement detecting means configured for detecting a movement of a part of the body of the person, wherein the movement is caused by a skeletal muscle of the body; recording means configured for recording the detected heart rate and the detected movement of the part of the body; heart rate classifying means configured for classifying the recorded heart rate of the person into at least one heart rate class and at least one heart rate variability class; movement classifying means configured for classifying the recorded movement into at least one movement class; and determining means configured for determining the sleep stage transition of the person based at least partially on the at least one heart rate class, the at least one heart rate variability class, and the at least one movement class, characterised in that the determining means are further configured for identifying a specific combination of a heart rate class, a heart rate variability class, and a movement class within a specific time period, and wherein the determining means are configured for determining the sleep stage transition based on the identified specific combination. heart rate detecting means configured for detecting a heart rate of the person; movement detecting means configured for detecting a movement of a part of the body of the person, wherein the movement is caused by a skeletal muscle of the body; recording means configured for recording the detected heart rate and the detected movement of the part of the body; heart rate classifying means configured for classifying the recorded heart rate of the person into at least one heart rate class and at least one heart rate variability class; movement classifying means configured for classifying the recorded movement into at least one movement class; and determining means configured for determining the sleep stage transition of the person based at least partially on the at least one heart rate class, the at least one heart rate variability class, and the at least one movement class, characterised in that the determining means are further configured for identifying a specific combination of a heart rate class, a heart rate variability class, and a movement class within a specific time period, and wherein the determining means are configured for determining the sleep stage transition based on the identified specific combination.
A method for a device, comprising: configuring the device by a network node with at least a serving cell, wherein the serving cell is configured with one or multiple bandwidth parts, in the following also referred to as BWPs, and a timer, and wherein the serving cell is activated; monitoring physical downlink control channel, in the following also referred to as PDCCH, on a BWP, wherein the BWP is active, and wherein the active BWP is one of the configured BWPs and the active BWP is associated with an active downlink, in the following also referred to as DL, BWP; receiving an information from PDCCH, wherein the PDCCH is addressed to a group-common RNTI, in the following also referred to as GC-RNTI, used for multicast or broadcast service, in the following also referred to as MBS, and the information indicates downlink assignment on the active BWP; and starting or restarting the timer associated with the active DL BWP in response to the reception of downlink assignment, characterized in that the timer is a bwp-InactivityTimer, and if the bwp-InactivityTimer expires, the device performs BWP switching to a BWP indicated by defaultDownlinkBWP-Id, wherein the BWP indicated by defaultDownlinkBWP-Id is one of the configured BWP; or if the bwp-InactivityTimer expires, the device performs BWP switching to a BWP indicated by initialDownlinkBWP, wherein the BWP indicated by initialDownlinkBWP is one of the configured BWP. configuring the device by a network node with at least a serving cell, wherein the serving cell is configured with one or multiple bandwidth parts, in the following also referred to as BWPs, and a timer, and wherein the serving cell is activated; monitoring physical downlink control channel, in the following also referred to as PDCCH, on a BWP, wherein the BWP is active, and wherein the active BWP is one of the configured BWPs and the active BWP is associated with an active downlink, in the following also referred to as DL, BWP; receiving an information from PDCCH, wherein the PDCCH is addressed to a group-common RNTI, in the following also referred to as GC-RNTI, used for multicast or broadcast service, in the following also referred to as MBS, and the information indicates downlink assignment on the active BWP; and starting or restarting the timer associated with the active DL BWP in response to the reception of downlink assignment, characterized in that the timer is a bwp-InactivityTimer, and if the bwp-InactivityTimer expires, the device performs BWP switching to a BWP indicated by defaultDownlinkBWP-Id, wherein the BWP indicated by defaultDownlinkBWP-Id is one of the configured BWP; or if the bwp-InactivityTimer expires, the device performs BWP switching to a BWP indicated by initialDownlinkBWP, wherein the BWP indicated by initialDownlinkBWP is one of the configured BWP.
A heating, ventilation, air conditioning and refrigeration (HVACR) system including a single unit optimizing controller capable of operating the HVACR system, at least one cooling unit and a plurality of sensors each for sensing a unique output of the HVACR system, the controller including: a communications section for communicating with one or more remote controller terminals ; and a control section operatively associated with the HVACR system for selectively activating or deactivating the at least one cooling unit based on one or more settings received from the remote controller terminal via the communications section; wherein the controller is responsive to the sensors such that the selectively activating or deactivating the at least one cooling unit is influenced by the one or more of the plurality of sensors and characterised in that the the plurality of sensors includes a biofilm growth sensor for sensing biofilm growth in a water cooling tower and/or a water circuit of the HVACR system. a communications section for communicating with one or more remote controller terminals ; and a control section operatively associated with the HVACR system for selectively activating or deactivating the at least one cooling unit based on one or more settings received from the remote controller terminal via the communications section; wherein the controller is responsive to the sensors such that the selectively activating or deactivating the at least one cooling unit is influenced by the one or more of the plurality of sensors and characterised in that the the plurality of sensors includes a biofilm growth sensor for sensing biofilm growth in a water cooling tower and/or a water circuit of the HVACR system.
A holder for thermally contacting an electronic component mounted on a circuit board with a cooling body comprising: the holder includes a holding body , a spring member , and a tensioning member ; the holding body forms a cavity corresponding to the electronic component to receive the electronic component and comprises a connecting section , a thermally conductive heat conductive section , adjacent to the cavity, and a thermal connecting surface , facing away from the cavity; the tensioning member is configured to tension the spring member ; and the spring member configured to support itself in a tensioned state on a counter-holding member to apply a force onto the holding body and/or onto the component receivable in the cavity of the holding body , the spring member moves the connecting surface of the holding body to the cooling body and/or presses it against the cooling body , characterized in that the connecting section is dimensionally stable and the heat conductive section is formed of a thermoplastic elastomer. the holder includes a holding body , a spring member , and a tensioning member ; the holding body forms a cavity corresponding to the electronic component to receive the electronic component and comprises a connecting section , a thermally conductive heat conductive section , adjacent to the cavity, and a thermal connecting surface , facing away from the cavity; the tensioning member is configured to tension the spring member ; and the spring member configured to support itself in a tensioned state on a counter-holding member to apply a force onto the holding body and/or onto the component receivable in the cavity of the holding body , the spring member moves the connecting surface of the holding body to the cooling body and/or presses it against the cooling body , characterized in that the connecting section is dimensionally stable and the heat conductive section is formed of a thermoplastic elastomer.
A labeled nucleotide analog comprising: two avidin proteins connected through a central dye component, the central dye component comprising one or more dye moieties wherein the dye moieties comprise fluorescent labels, the central dye component further comprising two bis-biotin moieties, each of the bis-biotin moieties bound to one of the avidin proteins, wherein one of the avidin proteins is also bound to a first nucleotide component through a bis-biotin moiety, wherein the first nucleotide component comprises one or more phospholinked nucleotides, and wherein the other avidin protein is also bound to a second nucleotide component through a bis-biotin moiety, wherein the second nucleotide component comprises one or more phospholinked nucleotides, and wherein the first nucleotide component and second nucleotide component each comprise the same type of nucleotide. two avidin proteins connected through a central dye component, the central dye component comprising one or more dye moieties wherein the dye moieties comprise fluorescent labels, the central dye component further comprising two bis-biotin moieties, each of the bis-biotin moieties bound to one of the avidin proteins, wherein one of the avidin proteins is also bound to a first nucleotide component through a bis-biotin moiety, wherein the first nucleotide component comprises one or more phospholinked nucleotides, and wherein the other avidin protein is also bound to a second nucleotide component through a bis-biotin moiety, wherein the second nucleotide component comprises one or more phospholinked nucleotides, and wherein the first nucleotide component and second nucleotide component each comprise the same type of nucleotide.
Method for cutting plate-shaped metal workpieces having a thickness (d) of at least 2 mm in a fusion cutting process by means of a laser beam of a solid-state laser or diode laser and with nitrogen as cutting gas , which both together exit through a nozzle opening of a cutting gas nozzle , wherein the cutting gas that exits through the nozzle opening has a cutting gas pressure (p), characterized in that the opening diameter on the workpiece side or the length (a) of the long axis of the nozzle opening is between 7mm and 12mm, the distance (A) of the nozzle end face on the workpiece side from the workpiece surface is between 0mm and 0.5mm, the cutting gas pressure (p) is between 1 bar and 6 bar, and at the height of the nozzle end face on the workpiece side, the beam axis of the laser beam is at a distance of at least 3 mm from the rear opening wall portion of the nozzle opening viewed in the cutting direction . the opening diameter on the workpiece side or the length (a) of the long axis of the nozzle opening is between 7mm and 12mm, the distance (A) of the nozzle end face on the workpiece side from the workpiece surface is between 0mm and 0.5mm, the cutting gas pressure (p) is between 1 bar and 6 bar, and at the height of the nozzle end face on the workpiece side, the beam axis of the laser beam is at a distance of at least 3 mm from the rear opening wall portion of the nozzle opening viewed in the cutting direction .
Plant for production of crate-type packaging (200; 200'; 200"; 200"') starting from a panel comprising a sheet and a film applied to the sheet , the plant comprises: - a shearing machine (A), used to make through openings (12, 13; 17; 55, 57) in the shape of a circle and/or oblong eyelet in the said panel , in order to obtain the panel (1a; 1a') with through openings, - a first milling machine (B) used to make longitudinal channels , enabling the longitudinal sides of the crate to be folded up at right angles to the base , - a second milling machine (C) used to make transverse channels enabling the transverse sides of the crate to be folded up at right angles to the base , the said sheet is of rigid, non-flexible material; the said first and second milling machines (B, C) comprising mills or cutting discs revolving at around 6,000 - 12,000 rpm to make incisions, through removal of material, in the said sheet , in such a way as to form the said longitudinal and transverse channels constituted by stopped grooves; where each milling machine includes a counter device to support the panel while it is in contact with the mills or cutting discs ; characterised in that the said plant also comprises a stapling machine (E) used to staple corner posts (6; 106) in the shape of rigid columns, to parts of the said panel intended to form the said transverse sides and/or the said longitudinal sides of the crate, in order to obtain a panel (1e; 1e'; 1e"; 1e'") with corner posts (6; 106) attached to the said parts of the panel intended to form the said transverse sides and/or the said longitudinal sides of the crate, and the said stapling machine (E) includes: - means of transport (83; 82a) to transport the panel and - stapling heads fitted so that they swing from a bar positioned transversely to apply staples (P) to the panel, in order to attach the said corner posts (6; 106) to the panel. - a shearing machine (A), used to make through openings (12, 13; 17; 55, 57) in the shape of a circle and/or oblong eyelet in the said panel , in order to obtain the panel (1a; 1a') with through openings, - a first milling machine (B) used to make longitudinal channels , enabling the longitudinal sides of the crate to be folded up at right angles to the base , - a second milling machine (C) used to make transverse channels enabling the transverse sides of the crate to be folded up at right angles to the base , - means of transport (83; 82a) to transport the panel and - stapling heads fitted so that they swing from a bar positioned transversely to apply staples (P) to the panel, in order to attach the said corner posts (6; 106) to the panel.
MEMS actuator , comprising: a substrate , a first electrode structure that is stationary with respect to the substrate , wherein the first electrode structure comprises a plurality of partial electrode structures (14-1, ..., 14-n), each of which comprises an edge structure (14-0) and can be electrically controlled separately, and a second electrode structure with an edge structure (16-0), wherein the second electrode structure is deflectably coupled to the substrate by means of a spring structure and is electronically deflectable by means of the first electrode structure to move the edge structure (16-0) of the second electrode structure into one of a plurality of discrete deflection positions (z), wherein the edge structures (14-0, 16-0) of the first and second electrode structures are configured to be opposite to each other with respect to a top view and the opposite portions are spaced apart by a lateral distance (x 0 ), and wherein the individual partial electrode structures (14-1, ..., 14-n) of the first electrode structure are configured to apply a different, equally directed electrostatic force on the second electrode structure based on an electric control voltage (V S ) and to deflect the second electrode structure into the respective discrete deflection position (z). a substrate , a first electrode structure that is stationary with respect to the substrate , wherein the first electrode structure comprises a plurality of partial electrode structures (14-1, ..., 14-n), each of which comprises an edge structure (14-0) and can be electrically controlled separately, and a second electrode structure with an edge structure (16-0), wherein the second electrode structure is deflectably coupled to the substrate by means of a spring structure and is electronically deflectable by means of the first electrode structure to move the edge structure (16-0) of the second electrode structure into one of a plurality of discrete deflection positions (z), wherein the edge structures (14-0, 16-0) of the first and second electrode structures are configured to be opposite to each other with respect to a top view and the opposite portions are spaced apart by a lateral distance (x 0 ), and wherein the individual partial electrode structures (14-1, ..., 14-n) of the first electrode structure are configured to apply a different, equally directed electrostatic force on the second electrode structure based on an electric control voltage (V S ) and to deflect the second electrode structure into the respective discrete deflection position (z).
A ventilator for generating a flux of respiratory pressurised gas, comprising: a rotor capable of revolving about an axis of rotation for generating a flux of respiratory gas, the rotor being driven by a motor; an air inlet ; characterized by further comprising an outlet , wherein a section of the outlet comprises a first part of the outlet configured for collecting the flux of pressurized gas generated by the rotor according to an oblique direction relative to the axis of rotation, wherein the first part of the outlet is located immediately adjacent to the rotor and is oriented obliquely and radially outwards relative to the axis of rotation ; and a second part of the outlet arranged downstream of the first part of the outlet and oriented substantially parallel to the axis of rotation, such as to rectify the flux of pressurized gas collected by the first part of the outlet in a direction substantially parallel to the axis of rotation . a rotor capable of revolving about an axis of rotation for generating a flux of respiratory gas, the rotor being driven by a motor; an air inlet ; characterized by further comprising an outlet , wherein a section of the outlet comprises a first part of the outlet configured for collecting the flux of pressurized gas generated by the rotor according to an oblique direction relative to the axis of rotation, wherein the first part of the outlet is located immediately adjacent to the rotor and is oriented obliquely and radially outwards relative to the axis of rotation ; and a second part of the outlet arranged downstream of the first part of the outlet and oriented substantially parallel to the axis of rotation, such as to rectify the flux of pressurized gas collected by the first part of the outlet in a direction substantially parallel to the axis of rotation .
A cascade type thrust reverser device for a turbomachine of an aircraft, the device comprising a thrust reverser cascade and a casing , the cascade extending in a first plane defining a first direction (D A ) and a second direction (D C ) and including first partitions positioned successively in the first direction (D A ) and parallel to one another, second partitions intersecting said first partitions and each extending in planes parallel to one another and parallel to the first direction (D A ), and cavities each defined by two first partitions and two second partitions , the casing comprising an opening extending in a plane orthogonal to said first direction (D A ) and a housing wherein the cascade can be inserted in said first direction (D A ) via said opening , and the casing and said cascade being in relative translation with respect to one another in the first direction (D A ) between a first position of the device in which the cascade is entirely positioned in the housing and a second position of the device in which said cascade is at least partially outside said housing , characterized in that the casing comprises a perforated wall intended to be in contact with an air flow (F) and to be positioned between said air flow (F) and the cascade when the device is in the first position, the perforated wall including a plurality of orifices and a plurality of wall strips with no orifices and intended to face the first walls of the cascade when the device is in the first position, at least one orifice being positioned between two successive wall strips in the first direction (DA) and facing a cavity when the device is in the first position.
A genetically engineered fusion molecule comprising a tumor associated antigen (TAA) antibody (Ab) attached to an interferon alpha (IFN-α) mutant molecule, the IFN-α mutant molecule consisting of the amino acid sequence set forth in SEQ ID NO: 13 wherein R149 is A and wherein R162 is A, and wherein said antibody is attached directly to said IFN-α mutant molecule, wherein said fusion molecule when contacted to a tumor cell results in the killing or inhibition of growth or proliferation of said tumor cell.