mhurhangee/patent-ind-claim-en huggingface dataset:
A Coriolis mass flow meter , having - at least one measuring tube through which a measuring medium can be passed, - a driver (D) which sets the measuring tube into resonant vibration, - a first sensor (S1) and a second sensor (S2) which are arranged on the measuring tube offset from one another along a flow direction (a) of the measuring medium and detect the vibrations of the measuring tube , and - a terminal board for electrically connecting an electric circuit of the driver (D) to a voltage source , characterized in that at least one resistor (R I -R VI ) is provided in, and connected parallel to, the electric circuit of the driver (D) on the terminal board , wherein said at least one resistor can be activated or deactivated to set a specific current intensity in the electric circuit for adaptation to the requirements of the driver (D), so that the same terminal plate can be used for different drivers (D). - at least one measuring tube through which a measuring medium can be passed, - a driver (D) which sets the measuring tube into resonant vibration, - a first sensor (S1) and a second sensor (S2) which are arranged on the measuring tube offset from one another along a flow direction (a) of the measuring medium and detect the vibrations of the measuring tube , and - a terminal board for electrically connecting an electric circuit of the driver (D) to a voltage source , characterized in that at least one resistor (R I -R VI ) is provided in, and connected parallel to, the electric circuit of the driver (D) on the terminal board , wherein said at least one resistor can be activated or deactivated to set a specific current intensity in the electric circuit for adaptation to the requirements of the driver (D), so that the same terminal plate can be used for different drivers (D).
Dispensing head for a trigger dispensing device , comprising: - a dispensing duct extending along a rectilinear dispensing axis (Z); - a frame ; - a trigger applied to the frame, which can be actuated to dispense the liquid; - a spring suitable to operate on the trigger with an elastic return action, comprising: i) a pair of main arms extending from a front end engageable by the trigger to an opposite rear end (54",54") mainly along a respective arm axis (B); ii) secondary arms extending from the main arms as an extension along a respective extension axis (P) separate from the arm axis (B); iii) an abutment portion which joins the secondary arms each other; wherein the abutment portion and/or the secondary arms are applied to the frame to create a constraint and give rise said return action, characterised by the fact that the abutment portion consists of a cross member which joins said secondary arms each other, said cross member and said secondary arms forming a cove curving inwards from the rear ends (52",54") of the main arms . - a dispensing duct extending along a rectilinear dispensing axis (Z); - a frame ; - a trigger applied to the frame, which can be actuated to dispense the liquid; - a spring suitable to operate on the trigger with an elastic return action, comprising: i) a pair of main arms extending from a front end engageable by the trigger to an opposite rear end (54",54") mainly along a respective arm axis (B); ii) secondary arms extending from the main arms as an extension along a respective extension axis (P) separate from the arm axis (B); iii) an abutment portion which joins the secondary arms each other; i) a pair of main arms extending from a front end engageable by the trigger to an opposite rear end (54",54") mainly along a respective arm axis (B); ii) secondary arms extending from the main arms as an extension along a respective extension axis (P) separate from the arm axis (B); iii) an abutment portion which joins the secondary arms each other;
A sensor arrangement for capacitive detection of approaches on a motor vehicle , having a capacitive sensor electrode (2, 3; 25) and at least one control and evaluation device coupled to the sensor electrode, which detects a change in the capacitance of the sensor electrode, the sensor electrode (2, 3; 25) being constructed as an elongated flat electrode, first electrode sections (a) with a first surface width and first deformability alternating with second sections (b) of a second, lower surface width and second, larger deformability, in the sensor electrode (2, 3; 25) in the longitudinal direction of the sensor electrode, so that in certain sections, continuously conductive and connected, but differently deformable electrode surfaces with different dimensions are formed, characterized in that a deformable and electrically insulating jacket (30; 40) of the sensor electrode is constructed, wherein the sensor electrode has alternating regions with uniform dimensions in pairs, so that all wider sections are constructed uniformly and all narrower sections are constructed uniformly and wherein the second sections have a smaller length than the first sections.
An electron emitter comprising: a plurality of elongate rungs (35a-o) connected together end to end from a first emitter end to a second emitter end ; a plurality of corners , wherein each elongate rung is connected to another elongate rung through a corner of the plurality of corners , each corner having a corner apex and an opposite corner nadir between the connected elongate rungs of the plurality of elongate rungs (35a-o); a first gap between adjacent non-connected elongate rungs of the plurality of elongate rungs (35a-o), wherein the first gap extends from the first emitter end to a middle rung ; a second gap between adjacent non-connected elongate rungs of the plurality of elongate rungs (35a-o), wherein the second gap extends from the second emitter end to the middle rung , wherein the first gap does not intersect the second gap ; and one or more cutouts at one or more of the corners of the plurality of corners between the corner apex and corner nadir or at the corner nadir; wherein the plurality of elongate rungs (35a-o) are connected together end to end from the first emitter end to the second emitter end in a plane so as to form a planar pattern. a plurality of elongate rungs (35a-o) connected together end to end from a first emitter end to a second emitter end ; a plurality of corners , wherein each elongate rung is connected to another elongate rung through a corner of the plurality of corners , each corner having a corner apex and an opposite corner nadir between the connected elongate rungs of the plurality of elongate rungs (35a-o); a first gap between adjacent non-connected elongate rungs of the plurality of elongate rungs (35a-o), wherein the first gap extends from the first emitter end to a middle rung ; a second gap between adjacent non-connected elongate rungs of the plurality of elongate rungs (35a-o), wherein the second gap extends from the second emitter end to the middle rung , wherein the first gap does not intersect the second gap ; and one or more cutouts at one or more of the corners of the plurality of corners between the corner apex and corner nadir or at the corner nadir; wherein the plurality of elongate rungs (35a-o) are connected together end to end from the first emitter end to the second emitter end in a plane so as to form a planar pattern.
A battery pack, comprising a heat insulation panel , a housing , and an energy storage module , wherein the energy storage module is located in the housing , the heat insulation panel is located between the energy storage module and the housing , the heat insulation panel comprises a heat insulation layer and an outer packaging layer , the heat insulation layer comprises an elastic heat insulation layer and a fire-resistant layer , and the elastic heat insulation layer and the fire-resistant layer are stacked; characterized in that the outer packaging layer wraps the outside of the heat insulation layer and is configured to compress a thickness of the elastic heat insulation layer , so that the heat insulation panel is compressed to a compressed state, and a ventilation channel is formed between the heat insulation panel in the compressed state and the energy storage module ; and the outer packaging layer is configured to release compression of the elastic heat insulation layer when the energy storage module reaches a thermal runaway temperature, so that the elastic heat insulation layer is elastically restored to a free state, and the heat insulation panel in the free state is filled between the housing and the energy storage module . the outer packaging layer wraps the outside of the heat insulation layer and is configured to compress a thickness of the elastic heat insulation layer , so that the heat insulation panel is compressed to a compressed state, and a ventilation channel is formed between the heat insulation panel in the compressed state and the energy storage module ; and the outer packaging layer is configured to release compression of the elastic heat insulation layer when the energy storage module reaches a thermal runaway temperature, so that the elastic heat insulation layer is elastically restored to a free state, and the heat insulation panel in the free state is filled between the housing and the energy storage module .
A method for the performance-enhancing driver assistance of a road vehicle driven by a driver (DR); the method comprises the steps of: - detecting a plurality of dynamic data (DD) of the vehicle by means of a control system ; - suggesting to the driver (DR), by means of an interface device and depending on the plurality of dynamic data (DD), one or more corrective actions (CA) to be carried out in order to accomplish a mission (M) optimizing a cost function (CF); and - estimating the driving ability of the driver (DR) in order to obtain a driver rating value (DRV), based on which the corrective actions (CA) to be suggested are to be changed; - the method being characterized in that the quantity of corrective actions (CA) suggested to the driver (DR) follows a variable profile (PR) which changes depending on the driver rating value (DRV). - detecting a plurality of dynamic data (DD) of the vehicle by means of a control system ; - suggesting to the driver (DR), by means of an interface device and depending on the plurality of dynamic data (DD), one or more corrective actions (CA) to be carried out in order to accomplish a mission (M) optimizing a cost function (CF); and - estimating the driving ability of the driver (DR) in order to obtain a driver rating value (DRV), based on which the corrective actions (CA) to be suggested are to be changed; - the method being characterized in that the quantity of corrective actions (CA) suggested to the driver (DR) follows a variable profile (PR) which changes depending on the driver rating value (DRV).
Device for the supply of a gas comprising: • a plurality of gas vessels , preferably in the form of gas cylinders; • a frame comprising a lower portion , an upper portion , and a plurality of side portions , defining a space for arranging said plurality of gas vessels ; • a hooking element coupled to said upper portion of said frame , configured to cooperate with a hook or similar element of an external machine adapted to lift said device , said hooking element being coupled to said frame in a movable manner , at least between an operative position and a rest position; characterized in that the device comprises an activation mechanism mechanically coupled to the hooking element , comprising a control portion, that is operable by a user to move said hooking element between said operative position and said rest position; and in that said activation mechanism comprises a first bar coupled to said hooking element and a second bar coupled to said first bar, said first bar arranged at said upper portion of said frame, said second bar arranged at one of said side portions of said frame, said second bar comprising, or being coupled to, said control portion, preferably the second bar being indirectly linked to the first bar, via one or more further elements, so that movement of the second bar causes movement of the first bar. • a plurality of gas vessels , preferably in the form of gas cylinders; • a frame comprising a lower portion , an upper portion , and a plurality of side portions , defining a space for arranging said plurality of gas vessels ; • a hooking element coupled to said upper portion of said frame , configured to cooperate with a hook or similar element of an external machine adapted to lift said device , said hooking element being coupled to said frame in a movable manner , at least between an operative position and a rest position; characterized in that the device comprises an activation mechanism mechanically coupled to the hooking element , comprising a control portion, that is operable by a user to move said hooking element between said operative position and said rest position; and in that said activation mechanism comprises a first bar coupled to said hooking element and a second bar coupled to said first bar, said first bar arranged at said upper portion of said frame, said second bar arranged at one of said side portions of said frame, said second bar comprising, or being coupled to, said control portion, preferably the second bar being indirectly linked to the first bar, via one or more further elements, so that movement of the second bar causes movement of the first bar.
A sheet cutting device comprising: a cutter to cut a sheet conveyed through a conveyance path to a desired length, wherein the cutter is movable in a direction perpendicular to the sheet conveyance direction; a movable member to move the cutter in a cutting direction; a driving device to drive the movable member ; a sheet ejection guide ; characterized in that the device is comprising: a lower guide ; and a sheet holder disposed on a downstream side of a sheet cutting position of the cutter in the sheet conveyance direction, to hold the sheet, the sheet holder including a sheet holding member that is disposed on a sheet cutting start side of the cutter and is movable to a sheet holding position at which the sheet holding member holds the sheet and a non-holding position at which the sheet holding member does not hold the sheet, wherein the sheet holding member is configured to sandwich the sheet with the lower guide to hold the sheet in the sheet holding position, wherein, when the sheet is cut by the cutter , the sheet holding member moves to the sheet holding position, and after cutting of the sheet has been completed, the sheet holding member moves to the non-holding position. a cutter to cut a sheet conveyed through a conveyance path to a desired length, wherein the cutter is movable in a direction perpendicular to the sheet conveyance direction; a movable member to move the cutter in a cutting direction; a driving device to drive the movable member ; a sheet ejection guide ; characterized in that the device is comprising: a lower guide ; and a sheet holder disposed on a downstream side of a sheet cutting position of the cutter in the sheet conveyance direction, to hold the sheet, the sheet holder including a sheet holding member that is disposed on a sheet cutting start side of the cutter and is movable to a sheet holding position at which the sheet holding member holds the sheet and a non-holding position at which the sheet holding member does not hold the sheet, wherein the sheet holding member is configured to sandwich the sheet with the lower guide to hold the sheet in the sheet holding position, wherein, when the sheet is cut by the cutter , the sheet holding member moves to the sheet holding position, and after cutting of the sheet has been completed, the sheet holding member moves to the non-holding position. a lower guide ; and a sheet holder disposed on a downstream side of a sheet cutting position of the cutter in the sheet conveyance direction, to hold the sheet, the sheet holder including a sheet holding member that is disposed on a sheet cutting start side of the cutter and is movable to a sheet holding position at which the sheet holding member holds the sheet and a non-holding position at which the sheet holding member does not hold the sheet, wherein the sheet holding member is configured to sandwich the sheet with the lower guide to hold the sheet in the sheet holding position, wherein, when the sheet is cut by the cutter , the sheet holding member moves to the sheet holding position, and after cutting of the sheet has been completed, the sheet holding member moves to the non-holding position.
A method for detecting the presence or absence of helminth eggs or protozoan oocysts in an environmental sample, the method comprising: (a) obtaining a solution comprising an environmental sample suspended in a sample buffer; (b) flowing the solution through a first filtration membrane having a pore size of between 85 microns and 350 microns to form a first filtrate; (c) flowing the first filtrate through a second filtration membrane having a pore size of between 5 microns and 45 microns; (d) treating the helminth eggs and/or protozoan oocysts captured on the second filtration membrane with a bleach solution; (e) contacting the treated helminth eggs and/or or protozoan oocysts captured on the second filtration membrane with a N-acetyl-D-glucosamine binding domain conjugated to a detectable moiety; and (f) detecting the presence or absence of helminth eggs and/or protozoan oocysts on the second filtration membrane in the environmental sample based on the detectable moiety. (a) obtaining a solution comprising an environmental sample suspended in a sample buffer; (b) flowing the solution through a first filtration membrane having a pore size of between 85 microns and 350 microns to form a first filtrate; (c) flowing the first filtrate through a second filtration membrane having a pore size of between 5 microns and 45 microns; (d) treating the helminth eggs and/or protozoan oocysts captured on the second filtration membrane with a bleach solution; (e) contacting the treated helminth eggs and/or or protozoan oocysts captured on the second filtration membrane with a N-acetyl-D-glucosamine binding domain conjugated to a detectable moiety; and (f) detecting the presence or absence of helminth eggs and/or protozoan oocysts on the second filtration membrane in the environmental sample based on the detectable moiety.
A Coriolis mass flow sensor with a first fin and a second fin , the Coriolis mass flow sensor further having at least two transducers (104a and 104b) coupled to the fins (108a and 108b) and configured to induce Coriolis responses therein, the first fin being coupled to the second fin by at least one fin coupler (120a and/or 120b), characterized in that the Coriolis mass flow sensor further comprises a base coupled to the first fin and the second fin , wherein the at least one fin coupler (120a and/or 120b) is used to at least partially restrict the motion of a free edge of the first fin relative to the second fin , wherein the free edge is defined as the downward most edge of the fins extending from or through the base to be immersed in a fluid flow.
Forming drum for producing tyres for vehicle wheels comprising: a central shaft concentric to a geometric rotation axis (X) of the forming drum; two lateral deposition surfaces radially outer with respect to the central shaft and axially opposite, wherein the two lateral deposition surfaces are set in rotation by the central shaft around the geometric rotation axis (X); an adjustment linkage , configured to axially move the two lateral deposition surfaces towards and away from one another, comprising an adjustment shaft coaxial with the central shaft wherein a relative rotation between the adjustment shaft and the central shaft actuates the adjustment linkage ; at least one actuation device fixedly connected to the adjustment shaft ; and characterized by at least one locking device operating on the actuation device between a first condition in which it prevents the rotation of the actuation device with respect to the central shaft and a second condition in which it allows the relative rotation between the actuation device and the central shaft ; the locking device , when in the first condition, defining a plurality of locking positions for the actuation device , wherein any locking position is reachable by the actuation device , starting from a previous locking position, following a relative and predetermined angular rotation between the actuation device and the central shaft with the locking device in the second condition. a central shaft concentric to a geometric rotation axis (X) of the forming drum; two lateral deposition surfaces radially outer with respect to the central shaft and axially opposite, wherein the two lateral deposition surfaces are set in rotation by the central shaft around the geometric rotation axis (X); an adjustment linkage , configured to axially move the two lateral deposition surfaces towards and away from one another, comprising an adjustment shaft coaxial with the central shaft wherein a relative rotation between the adjustment shaft and the central shaft actuates the adjustment linkage ; at least one actuation device fixedly connected to the adjustment shaft ; and characterized by at least one locking device operating on the actuation device between a first condition in which it prevents the rotation of the actuation device with respect to the central shaft and a second condition in which it allows the relative rotation between the actuation device and the central shaft ; the locking device , when in the first condition, defining a plurality of locking positions for the actuation device , wherein any locking position is reachable by the actuation device , starting from a previous locking position, following a relative and predetermined angular rotation between the actuation device and the central shaft with the locking device in the second condition.
A fingerprint recognition method, for an electronic device comprising a liquid crystal display screen on which fingerprint recognition sensors and light sensors are distributed, the method comprising: acquiring a fingerprint recognition command triggered by fingers of a user; determining a shielding region consisting of positions of respective light sensors shielded by the fingers after receiving the fingerprint recognition command; selecting a subgroup of the fingerprint recognition sensors according to the shielding region; and controlling the subgroup of fingerprint recognition sensors to recognize fingerprints of the fingers; wherein the determining a shielding region consisting of positions of respective light sensors shielded by the fingers after receiving the fingerprint recognition command comprises: determining respective light sensors of which measured brightness values are smaller than a preset threshold value after receiving the fingerprint recognition command; and determining a region consisting of the positions of respective light sensors as the shielding region. acquiring a fingerprint recognition command triggered by fingers of a user; determining a shielding region consisting of positions of respective light sensors shielded by the fingers after receiving the fingerprint recognition command; selecting a subgroup of the fingerprint recognition sensors according to the shielding region; and controlling the subgroup of fingerprint recognition sensors to recognize fingerprints of the fingers; wherein the determining a shielding region consisting of positions of respective light sensors shielded by the fingers after receiving the fingerprint recognition command comprises: determining respective light sensors of which measured brightness values are smaller than a preset threshold value after receiving the fingerprint recognition command; and determining a region consisting of the positions of respective light sensors as the shielding region. determining respective light sensors of which measured brightness values are smaller than a preset threshold value after receiving the fingerprint recognition command; and determining a region consisting of the positions of respective light sensors as the shielding region.