mhurhangee/patent-ind-claim-en huggingface dataset:
Internal combustion engine with multiple combustion chambers which are arranged adjacent to one another in a cylinder row in a cylinder crankcase, which combustion chambers are surrounded by a common coolant jacket which can be flowed through by a coolant, which can be supplied through an inlet and discharged through an outlet , in at least two partial streams along different coolant jacket sections arranged on different sides of the combustion chambers , which coolant jacket sections enclose the cylinder row between them, wherein the inlet is arranged on a first side and the outlet is arranged on a second side situated opposite the first side, wherein the coolant jacket is assigned a coolant line element with a coolant collector rail and the cylinder crankcase and a cylinder head can be jointly charged with the coolant through the coolant collector rail , characterized in that at least some webs between adjacent combustion chambers are equipped with an aperture connecting the two sides and can be charged with the coolant, and in that a restrictor is provided in an outside transition region of at least one coolant jacket section between the two sides, and in that the coolant quantity to be supplied to the cylinder crankcase, on the one hand, and the cylinder head, on the other hand, can be variably split up by means of an adjustable restrictor element.
A system for the installation of photovoltaic (PV) panels comprising at least a photovoltaic (PV) panel and at least a supporting beam (T v , T vi , T vii ) for the photovoltaic (PV) panels, the beam comprising one single main body with length (L) having a generally overturned "omega"-like profile having two terminal ends made integral with said main body , wherein said terminal ends are processed so as to include: • plane regions defining corresponding resting planes for said photovoltaic (PV) panels; and • at least an insertion fin for said photovoltaic (PV) panels on said resting planes, characterized in that said main body is at least partially configured to elastically deform when in contact with said photovoltaic (PV) panels during installation, to allow receiving and locking said photovoltaic (PV) panels on said resting planes in a final installation position, wherein each of said terminal ends comprises at least a locking elastic element for said photovoltaic (PV) panels in said final installation position, implemented as one piece with said main body , each one of said locking elements comprising a second fin obtained through partial cutting of a portion of said plane region , and projecting from the latter, wherein said second fin further comprises an interference portion , folded so as to insert in a corresponding slot provided on the photovoltaic (PV) panel, by locking it, when the latter is in a final installation position, according to a direction (P) parallel to said resting plane. wherein said terminal ends are processed so as to include: • plane regions defining corresponding resting planes for said photovoltaic (PV) panels; and • at least an insertion fin for said photovoltaic (PV) panels on said resting planes, • plane regions defining corresponding resting planes for said photovoltaic (PV) panels; and • at least an insertion fin for said photovoltaic (PV) panels on said resting planes, characterized in that said main body is at least partially configured to elastically deform when in contact with said photovoltaic (PV) panels during installation, to allow receiving and locking said photovoltaic (PV) panels on said resting planes in a final installation position, wherein each of said terminal ends comprises at least a locking elastic element for said photovoltaic (PV) panels in said final installation position, implemented as one piece with said main body , each one of said locking elements comprising a second fin obtained through partial cutting of a portion of said plane region , and projecting from the latter, wherein said second fin further comprises an interference portion , folded so as to insert in a corresponding slot provided on the photovoltaic (PV) panel, by locking it, when the latter is in a final installation position, according to a direction (P) parallel to said resting plane.
Linear, gripping, clamping, rotating or pivoting device with a microprocessor and a base housing , wherein a linear, gripping, clamping, rotating or pivoting element can be detachably arranged on the base housing , and wherein at least two sensors are arranged on the base housing , the microprocessor being configured to fuse output signals from the at least two sensors to form a fused signal, characterized in that the microprocessor is configured to determine information about an identification of the linear, gripping, clamping, rotating or pivoting device or of the linear, gripping, clamping, rotating or pivoting element depending on the fused signal.
A nut-nipple assembly, comprising: - a nipple comprising a base flange , said nipple having an anti-colic valve at the flange , - a nut comprising a flange having a central opening for receiving said nipple extending therethrough, the central opening having an edge and the nipple having an annular groove , said edge of said nut being engaged in the annular groove of the nipple , said nut being characterized by comprising means for inhibiting the anti-colic valve , comprising: - a first annular rib formed on the inner surface of the flange , said first annular rib abutting the flange of the nipple between said anti-colic valve and the edge of the central opening , - a second rib , concentric with said first rib , said second rib being configured to provide a hydraulic seal between the flange of the nipple and a mouth of a baby bottle , - a depression interposed between the first rib and the second rib , said depression abutting the anti-colic valve of the nipple when the nut and the nipple are coupled together to inhibit said anti-colic valve . - a nipple comprising a base flange , said nipple having an anti-colic valve at the flange , - a nut comprising a flange having a central opening for receiving said nipple extending therethrough, the central opening having an edge and the nipple having an annular groove , said edge of said nut being engaged in the annular groove of the nipple , - a first annular rib formed on the inner surface of the flange , said first annular rib abutting the flange of the nipple between said anti-colic valve and the edge of the central opening , - a second rib , concentric with said first rib , said second rib being configured to provide a hydraulic seal between the flange of the nipple and a mouth of a baby bottle , - a depression interposed between the first rib and the second rib , said depression abutting the anti-colic valve of the nipple when the nut and the nipple are coupled together to inhibit said anti-colic valve .
A computer-implemented method for providing a trained function for performing a workpiece quality control, comprising: - receiving a plurality of training high-frequency machining datasets , wherein different training high-frequency machining datasets are representative of different good quality workpieces, - transforming the plurality of training high-frequency machining datasets into a plurality of datasets on a time-frequency domain to achieve a plurality of training time-frequency domain datasets , - training a function based on the plurality of training time-frequency domain datasets, wherein the function is based on an autoencoder , wherein the autoencoder comprises an input layer , an output layer and a hidden layer , wherein the training comprises * providing each of the plurality of training time-frequency domain datasets for the input and for the output layer, - providing the trained function. - receiving a plurality of training high-frequency machining datasets , wherein different training high-frequency machining datasets are representative of different good quality workpieces, - transforming the plurality of training high-frequency machining datasets into a plurality of datasets on a time-frequency domain to achieve a plurality of training time-frequency domain datasets , - training a function based on the plurality of training time-frequency domain datasets, wherein the function is based on an autoencoder , wherein the autoencoder comprises an input layer , an output layer and a hidden layer , wherein the training comprises * providing each of the plurality of training time-frequency domain datasets for the input and for the output layer, * providing each of the plurality of training time-frequency domain datasets for the input and for the output layer, - providing the trained function.
Connector for use with a first and a second profile bar (21; 22) which have in each case at least one lateral face having an undercut groove , wherein the connector comprises a main body which has a first and a second bearing face (31; 32) which are able to be placed on a respective assigned lateral face of the first or the second profile bar (21; 22), respectively, wherein the connector comprises a first and a second gripping element (11; 12) which can engage in a respective assigned undercut groove of the first or the second profile bar (21; 22), respectively, wherein a threaded bolt is provided, characterized in that a lever which is rotatably mounted in a rotary joint on the main body is provided, wherein the rotary joint delimits a first and a second lever arm (41; 42) of the lever from one another, wherein the first gripping element for movement is coupled to the first lever arm , wherein the second gripping element by way of the threaded bolt is able to be braced in relation to the second lever arm .
A circuit for recovering energy from a thermal source comprising an operating fluid circulation pump (P), a high-temperature heat exchanger (HTHX) in which the operating fluid exchanges heat with the thermal source, a vane expander and a low-temperature heat exchanger (LTHX) in which the operating fluid exchanges heat with a cooling fluid, the vane expander comprising: - a stator provided with an inlet port for the operating fluid in the vapour state connected to a high temperature heat exchanger (HTHX) outlet and an outlet port connected to a low temperature heat exchanger (LTHX) inlet, - a rotor eccentrically housed in the stator and provided with a body internally tangent to an internal surface of the stator and with a plurality of vanes sliding in respective seats provided in the body of the rotor and pushed in a centrifugal direction for cooperating in a sealed manner with the internal surface , the stator and the body of the rotor delimiting between one another a circumferential chamber with variable radial width, communicating with the inlet port and the outlet port and divided by the vanes into a plurality of compartments ; comprising at least one supplementary inlet (20, 21; 22) for a supplementary inflow of operating fluid into an expansion portion of the chamber isolated from the inlet port and from the outlet port , characterised in that the circuit comprises a supply duct for supplying operating fluid in the liquid state from a high pressure branch of the circuit downstream of said circulation pump (P) and upstream of said high-temperature heat exchanger (HTHX) to said supplementary inlet (20;22) of the expander . - a stator provided with an inlet port for the operating fluid in the vapour state connected to a high temperature heat exchanger (HTHX) outlet and an outlet port connected to a low temperature heat exchanger (LTHX) inlet, - a rotor eccentrically housed in the stator and provided with a body internally tangent to an internal surface of the stator and with a plurality of vanes sliding in respective seats provided in the body of the rotor and pushed in a centrifugal direction for cooperating in a sealed manner with the internal surface , the stator and the body of the rotor delimiting between one another a circumferential chamber with variable radial width, communicating with the inlet port and the outlet port and divided by the vanes into a plurality of compartments ; comprising at least one supplementary inlet (20, 21; 22) for a supplementary inflow of operating fluid into an expansion portion of the chamber isolated from the inlet port and from the outlet port , characterised in that the circuit comprises a supply duct for supplying operating fluid in the liquid state from a high pressure branch of the circuit downstream of said circulation pump (P) and upstream of said high-temperature heat exchanger (HTHX) to said supplementary inlet (20;22) of the expander .
A biophotonic composition for wound healing including modulation of one or more of inflammation and collagen formation, the biophotonic composition comprising a first xanthene dye and at least one other xanthene dye, wherein the first xanthene dye is Eosin Y; and the at least one other xanthene dye is Fluorescein, and wherein the Eosin Y and the Fluorescein are present in the composition at a relative concentration such that when the composition is activated by light, the emitted light by the composition has a single peak at about 560 nm and a wavelength of between about 480 nm and 620 nm, and a power density more than a power density of a composition including Eosin Y alone.
A method for determining a flow distribution of a wellbore during a wellbore treatment, comprising: disposing an optical fiber into a wellbore; performing a pre-job analysis using a thermal model to evaluate whether an inversion to determine a flow distribution based on temperature evolution during injection will provide satisfactory results; if the evaluation of the pre-job analysis is that satisfactory results will not be provided, determining if an inversion to determine a flow distribution based on temperature evolution during injection and supplemental distributed temperature measurements taken during a shut-in of the wellbore will provide satisfactory results, and if so, performing a wellbore treatment in the wellbore with the optical fiber in place by flowing a well treatment fluid from the surface and wellbore and into the formation; taking distributed temperature measurements at a time interval with the optical fiber cable during the wellbore treatment operation while the well treatment fluid is flowing into the formation; and calculating a flow distribution of the wellbore using the thermal model based on the distributed temperature measurements, while the wellbore treatment fluid is flowing into the formation disposing an optical fiber into a wellbore; performing a pre-job analysis using a thermal model to evaluate whether an inversion to determine a flow distribution based on temperature evolution during injection will provide satisfactory results; if the evaluation of the pre-job analysis is that satisfactory results will not be provided, determining if an inversion to determine a flow distribution based on temperature evolution during injection and supplemental distributed temperature measurements taken during a shut-in of the wellbore will provide satisfactory results, and if so, performing a wellbore treatment in the wellbore with the optical fiber in place by flowing a well treatment fluid from the surface and wellbore and into the formation; taking distributed temperature measurements at a time interval with the optical fiber cable during the wellbore treatment operation while the well treatment fluid is flowing into the formation; and calculating a flow distribution of the wellbore using the thermal model based on the distributed temperature measurements, while the wellbore treatment fluid is flowing into the formation
Induction hob comprising a circuitry for powering at least one induction coil , the circuitry comprising a power circuit portion with at least one switching element adapted to provide pulsed electric power to said induction coil and an oscillating circuit portion comprising at least one resonance capacitor (9.1, 9.2) which is associated with a resonance capacitor voltage, said induction coil being electrically coupled with said power circuit portion and said oscillating circuit portion , wherein said induction hob comprises a control entity , said control entity being configured to provide and/or receive resonance capacitor information, the information being sampled resonance capacitor voltage values, applying a discrete mathematical transformation to the resonance capacitor information thereby obtaining modified resonance capacitor information, said control entity being further configured to calculate first and second electrical information related to the induction coil , the information being information regarding the amplitude of the electric current (Ic) provided through said induction coil and information regarding the phase delay between the electric current (Ic) provided through said induction coil and the voltage applied to the induction coil based on said modified resonance capacitor information.
Method for producing a cardboard box comprising a rigid window made of a transparent material extending over at least two adjacent faces of the box, comprising the following steps: - supplying a continuous width of transparent rigid plastics material, the width of which corresponds to the width used for the window ; - forming, in said continuous width , a succession of longitudinal cutouts having a length between 20 and 35 millimeters and a width less than 3 millimeters, said cutouts being distributed longitudinally with a pitch corresponding to the length of the window and laterally according to the widths of said adjacent faces - forming, on said continuous width , at least one longitudinal groove line which passes through the central longitudinal axis of said longitudinal cutouts - cutting said width , in order to individualize the windows , along a cross-sectional line passing through the middle of a row of longitudinal cutouts - applying one or more window pieces to cardboard blanks, the adhesive on each of said one or more window pieces being in contact with an associated solid fiberboard, and said groove lines being aligned with one of the groove lines of said associated fiberboard. - supplying a continuous width of transparent rigid plastics material, the width of which corresponds to the width used for the window ; - forming, in said continuous width , a succession of longitudinal cutouts having a length between 20 and 35 millimeters and a width less than 3 millimeters, said cutouts being distributed longitudinally with a pitch corresponding to the length of the window and laterally according to the widths of said adjacent faces - forming, on said continuous width , at least one longitudinal groove line which passes through the central longitudinal axis of said longitudinal cutouts - cutting said width , in order to individualize the windows , along a cross-sectional line passing through the middle of a row of longitudinal cutouts - applying one or more window pieces to cardboard blanks, the adhesive on each of said one or more window pieces being in contact with an associated solid fiberboard, and said groove lines being aligned with one of the groove lines of said associated fiberboard.
A spacer apparatus to slow the delivery of medication released from an inhaler , the spacer apparatus comprising: a spacer housing defining a spacer chamber ; a retaining device coupled to the spacer housing and configured to receive the inhaler ; characterized in that , wherein the retaining device is configured to shift the inhaler from a stored position to an active position in which the inhaler is able to deliver the medication to the spacer chamber and wherein in the closed position the inhaler is completely contained in the spacer housing ; characterized in that the spacer apparatus is configured to receive a communication system to transmit data on the use of the spacer. a spacer housing defining a spacer chamber ; a retaining device coupled to the spacer housing and configured to receive the inhaler ; characterized in that , wherein the retaining device is configured to shift the inhaler from a stored position to an active position in which the inhaler is able to deliver the medication to the spacer chamber and wherein in the closed position the inhaler is completely contained in the spacer housing ; characterized in that the spacer apparatus is configured to receive a communication system to transmit data on the use of the spacer.
A reusable urinary catheter product , comprising: a catheter tube having a proximal insertion end and a distal end ; a drainage member having a proximal end portion and a distal end portion , the proximal end portion of the drainage member being connected to the distal end of the catheter tube , the distal end portion of the drainage member defining a drainage opening ; a collapsible sleeve surrounding the catheter tube such that the catheter tube is located within an interior cavity defined by the sleeve , the sleeve having a proximal end portion and a distal end portion , an introducer attached to the proximal end portion of the sleeve and the distal end portion of the sleeve being attached to the drainage member , the drainage member including channels in fluid communication with the interior cavity of the sleeve , the channels allowing passage of sterilization fluid into and out of the sleeve; characterized in : a holder having a first port and a second port , the introducer being releasably attached to the first port and the drainage member being releasable attached to the second port ; and a sterilization fluid located within the sleeve. a catheter tube having a proximal insertion end and a distal end ; a drainage member having a proximal end portion and a distal end portion , the proximal end portion of the drainage member being connected to the distal end of the catheter tube , the distal end portion of the drainage member defining a drainage opening ; a collapsible sleeve surrounding the catheter tube such that the catheter tube is located within an interior cavity defined by the sleeve , the sleeve having a proximal end portion and a distal end portion , an introducer attached to the proximal end portion of the sleeve and the distal end portion of the sleeve being attached to the drainage member , the drainage member including channels in fluid communication with the interior cavity of the sleeve , the channels allowing passage of sterilization fluid into and out of the sleeve; characterized in : a holder having a first port and a second port , the introducer being releasably attached to the first port and the drainage member being releasable attached to the second port ; and a sterilization fluid located within the sleeve. a holder having a first port and a second port , the introducer being releasably attached to the first port and the drainage member being releasable attached to the second port ; and a sterilization fluid located within the sleeve.