mhurhangee/ep-ind-claims huggingface dataset:
A fastener device for assembling a part to a support portion, said fastener device comprising a fastener clip including a head and a deformable catch element that extends under the head in a certain axial direction, and that defines a cramping face spaced apart from the head in said axial direction, said catch element being designed to be pushed through the part and through the support portion in such a manner as to achieve assembly by cramping the part and the support portion between the head and the cramping face of the clip, said catch element being designed in such a manner that said cramping face is retracted resiliently into the clip transversely to said axial direction when the catch element is pushed through the part and through the support portion until the clip is pushed fully through the support portion, the cramping face returning resiliently to outside the clip so as to take up a cramping position for cramping to the support portion whenever the catch element is in said fully pushed-in position, said fastener device being characterized in that it further comprises a proper-assembly indicator for checking that the clip is properly assembled in the cramping position, said proper-assembly indicator being in the form of a sort of stud designed to be pushed axially into the clip, in that said indicator and said clip are designed in such a manner that, when the catch element is pushed through the support portion, the indicator is prevented from penetrating axially into the clip by an abutment on the catch element and, at the same time, the indicator is constrained to retract resiliently and transversely to said axial direction towards the inside of the clip under the effect of the cramping face retracting towards the inside of the clip, it being possible for the indicator to be pushed fully into the clip only when the cramping surface of the catch element comes fully into its cramping position for cramping the support portion from behind, the abutment on the catch element moving out of the way to allow the indicator to pass through in said axial direction.
A method for determining the thrombocyte count in a capillary blood sample, comprising the steps of: a. providing a capillary blood sample subjected to anticoagulant treatment with EDTA at sample collection; b. diluting said sample by a dilution factor of 1:10 to 1:2000, in a non-lytic buffer; c. incubating the diluted sample for a duration of 23-300 s in the presence of an amount of EDTA efficient for reducing platelet aggregation, wherein the amount of EDTA is at least 0.1 mM; d. optionally, diluting the incubated sample in a second dilution step prior to determining the thrombocyte count from the incubated sample; and e. determining the thrombocyte count from the incubated sample; wherein the steps b, c, e and optionally d are performed in an integrated device for thrombocyte counting. a. providing a capillary blood sample subjected to anticoagulant treatment with EDTA at sample collection; b. diluting said sample by a dilution factor of 1:10 to 1:2000, in a non-lytic buffer; c. incubating the diluted sample for a duration of 23-300 s in the presence of an amount of EDTA efficient for reducing platelet aggregation, wherein the amount of EDTA is at least 0.1 mM; d. optionally, diluting the incubated sample in a second dilution step prior to determining the thrombocyte count from the incubated sample; and e. determining the thrombocyte count from the incubated sample; wherein the steps b, c, e and optionally d are performed in an integrated device for thrombocyte counting.
A laser assisted remote phosphor system, comprising: a light source; a wavelength converter; and a collimating metalens comprising a first side and a second side; wherein: the light source is configured to emit primary light rays, at least a portion of said primary light rays being incident on said wavelength converter; the wavelength converter is configured to convert at least a portion of the primary light rays incident thereon to secondary light rays; the collimating metalens is positioned proximate to the wavelength converter such that at least a portion of the secondary light rays is incident on the first side of the collimating metalens; said collimating metalens is configured to collimate said secondary light rays, so as to produce collimated secondary light rays in a region down field ("DFR") of the collimating metalens, relative to said wavelength converter; and said collimating metalens is a hybrid multiregion metalens comprising a first region and a second region; the first region extends radially around an optical axis of said collimating metalens, and comprises an array of first unit cells containing subwavelength spaced nanostructures, such that said first region functions as a subwavelength high contrast grating (SWHCG); and the second region extends radially around the first region and comprises an array of second unit cells, wherein the array of second unit cells comprises a near periodic annular arrangement of nanostructures, such that the second region approximates the functionality of a locally periodic radial diffraction grating. a light source; a wavelength converter; and a collimating metalens comprising a first side and a second side; the light source is configured to emit primary light rays, at least a portion of said primary light rays being incident on said wavelength converter; the wavelength converter is configured to convert at least a portion of the primary light rays incident thereon to secondary light rays; the collimating metalens is positioned proximate to the wavelength converter such that at least a portion of the secondary light rays is incident on the first side of the collimating metalens; said collimating metalens is configured to collimate said secondary light rays, so as to produce collimated secondary light rays in a region down field ("DFR") of the collimating metalens, relative to said wavelength converter; and said collimating metalens is a hybrid multiregion metalens comprising a first region and a second region;
A computer implemented method for power management of a wearable device or an implantable device comprising a plurality of sensors (302, 304, 402a, 402b, 502, 504), each sensor configured for providing a corresponding physiological information of a user, each sensor being further configured to be operated in at least two power modes comprising a first power mode and a second power mode, wherein in the first power mode the physiological information of the user is gathered and in the second power mode the sensor consumes less power than in the first power mode, the method comprising: - receiving a signal being indicative of whether a health device (400, 500, 600) which is configured to treat a health condition of the user is in use, wherein the health device is positioned at a different location with respect to the user than the wearable device or the implantable device, wherein the signal further comprises information about a type of the health device in use; - selecting at least one sensor from the plurality of the sensors of the wearable device based on the type of the health device in use; - operating the selected at least one sensor in the first power mode for a time duration and operating the selected at least one sensor in second power mode thereafter. - receiving a signal being indicative of whether a health device (400, 500, 600) which is configured to treat a health condition of the user is in use, wherein the health device is positioned at a different location with respect to the user than the wearable device or the implantable device, wherein the signal further comprises information about a type of the health device in use; - selecting at least one sensor from the plurality of the sensors of the wearable device based on the type of the health device in use; - operating the selected at least one sensor in the first power mode for a time duration and operating the selected at least one sensor in second power mode thereafter.
A gas turbine engine comprising: a heat exchanger; a cooling compressor; a main compressor section having a high pressure compressor with a downstream most end, and more upstream locations; a turbine section having a high pressure turbine; and a first tap tapping air from at least one of said more upstream locations in said main compressor section, passing said tapped air through the heat exchanger and then to the cooling compressor, said cooling compressor compressing air downstream of said heat exchanger; characterised by further comprising: a second tap tapping air from a location closer to said downstream most end than the location(s) of said first tap, said air tapped by said first and second taps mixing together and being delivered into said high pressure turbine. a heat exchanger; a cooling compressor; a main compressor section having a high pressure compressor with a downstream most end, and more upstream locations; a turbine section having a high pressure turbine; and a first tap tapping air from at least one of said more upstream locations in said main compressor section, passing said tapped air through the heat exchanger and then to the cooling compressor, said cooling compressor compressing air downstream of said heat exchanger;
A device for manufacturing a rotor blade for a wind energy installation, wherein the rotor blade comprises at least two rotor blade shells which are bonded to one another, wherein the device comprises: - a holding device which is arranged to hold a rotor blade shell in a position in which at least one bonding surface (11 - 14) which is provided on the rotor blade shell and / or on a web which is attached to the rotor blade shell is exposed, at which bonding surface (11 - 14) the rotor blade shell can be bonded to a further rotor blade shell, - a robot arm which is arranged to apply adhesive to the at least one bonding surface (11 - 14), - a carriage on which the robot arm is mounted, and - a guide device which is mounted on the holding device, on which guide device the carriage is mounted so as to be movable, and which guide device is arranged to guide the carriage, together with the robot arm mounted thereon, along the holding device, in particular along the bonding surface (11 - 14) wherein the holding device has an upper region, a lower region and two lateral regions, characterised in that the guide device is attached to one of the lateral regions of the holding device. - a holding device which is arranged to hold a rotor blade shell in a position in which at least one bonding surface (11 - 14) which is provided on the rotor blade shell and / or on a web which is attached to the rotor blade shell is exposed, at which bonding surface (11 - 14) the rotor blade shell can be bonded to a further rotor blade shell, - a robot arm which is arranged to apply adhesive to the at least one bonding surface (11 - 14), - a carriage on which the robot arm is mounted, and - a guide device which is mounted on the holding device, on which guide device the carriage is mounted so as to be movable, and which guide device is arranged to guide the carriage, together with the robot arm mounted thereon, along the holding device, in particular along the bonding surface (11 - 14) wherein the holding device has an upper region, a lower region and two lateral regions, characterised in that the guide device is attached to one of the lateral regions of the holding device.
An on-site residual stress creation tool for treating a crankshaft bearing surface inside an internal combustion piston engine comprising a body structure and a residual stress treatment device for treating the bearing surface and/or crankshaft bearing fillet, characterized in that the body structure comprises a support part attachable around a journal of the crankshaft and an attachment part coupled to the support part, and that the body structure comprises a bearing structure by means of which the attachment part may be supported by the support part when attached to the journal of the crankshaft and arranged coaxially rotatable around the journal of the crankshaft, and that the residual stress treatment device is arranged to the attachment part of the body structure, and that the residual stress creation tool further comprises a drive system to rotate the attachment part and the residual stress treatment device in respect to the support part.
A radio wave transmitting decorative member comprising: a substrate; a transparent organic material layer; and a light reflecting layer provided between the substrate and the transparent organic material layer and formed of an alloy composed of either silicon or germanium, and a metal; characterized by a low refractive index layer provided between the transparent organic material layer and the light reflecting layer; wherein the low refractive index layer has lower refractivity than the refractivity of the transparent organic material layer, and the low refractive index layer is a space formed of a gas or a vacuum. a substrate; a transparent organic material layer; and a light reflecting layer provided between the substrate and the transparent organic material layer and formed of an alloy composed of either silicon or germanium, and a metal; characterized by a low refractive index layer provided between the transparent organic material layer and the light reflecting layer; wherein the low refractive index layer has lower refractivity than the refractivity of the transparent organic material layer, and the low refractive index layer is a space formed of a gas or a vacuum.
Multi-functional toilet assembly with a flush-mounted cistern comprising a flushing device and releasable by means of an actuator, a toilet body (2, 56, 62, 72, 74) having a flushing rim, a flushing water feed connectible to the flushing device, a waist water drain, and at least one additional functional element, wherein in addition to the flushing device a further technical element for the operation of the at least one functional element is disposed behind the toilet body, wherein an inspection opening extending at least from the upper edge of the toilet body (2, 56, 62, 72, 74) to at least the upper edge of the flush-mounted cistern is provided in the wall behind the toilet body (2, 56, 62, 72, 74), wherein the inspection opening can be closed by means of a detachable cover wall (18, 48, 50, 54, 60, 70), wherein said detachable cover wall (18, 48, 50, 54, 60, 70) consists of a mounting frame placed or clamped in front of the wall, characterized in that the cover wall (18, 48, 50, 54, 60, 70) comprises a glass plate (34, 36) the dimension of which is slightly smaller than the mounting frame so that the mounting frame is set back relative to said glass plate (34, 36) by a shoulder for forming a shadow gap.
Impact protective multi-layered fabric comprising a pile of layers of a textile material, wherein at least one of said layers is conformed to have least one closed fold extending longitudinally across the layer, said closed fold having first and second walls (5,6) substantially facing each other, and wherein said first and second walls (5,6) are stitched to each other by means of at least one yarn of a textile material characterized in that, the first and second walls (5,6) of the closed fold, are stitched to each other by means of two or more stitching lines, each stitching line extending along the closed fold and in major part of the length of the same, and wherein said stitching lines are arranged one above the other, and wherein each stitching line is placed according to the longitudinal direction of the closed fold.
Method for determining an indicator of a combustion knock in at least one cylinder of an internal combustion engine, notably a controlled-ignition engine, said cylinder being provided with a pressure sensor, characterized in that the following steps are implemented: a) a local pressure in said cylinder at a measurement point of said cylinder is measured by means of said pressure sensor; b) a modal breakdown of said local-pressure measurement signal is performed in order to determine the modes of oscillation of said local pressure; c) an overall pressure in said cylinder is determined by means of said modal breakdown of said local-pressure measurement signal, by performing the following steps: i) a model of said overall pressure that is a function of the amplitude of the modes of said overall pressure is defined; ii) the model of the overall pressure at the coordinates (x0, y0, z0) of said measurement point of said pressure sensor is calculated; iii) said amplitude of said modes of said overall pressure is determined by identifying oscillations of each mode of said modal breakdown of said local pressure at said local-pressure measurement point; and d) a knock indicator is determined, said knock indicator being a direct or indirect function of said overall pressure in the cylinder. a) a local pressure in said cylinder at a measurement point of said cylinder is measured by means of said pressure sensor; b) a modal breakdown of said local-pressure measurement signal is performed in order to determine the modes of oscillation of said local pressure; c) an overall pressure in said cylinder is determined by means of said modal breakdown of said local-pressure measurement signal, by performing the following steps: i) a model of said overall pressure that is a function of the amplitude of the modes of said overall pressure is defined; ii) the model of the overall pressure at the coordinates (x0, y0, z0) of said measurement point of said pressure sensor is calculated; iii) said amplitude of said modes of said overall pressure is determined by identifying oscillations of each mode of said modal breakdown of said local pressure at said local-pressure measurement point; and i) a model of said overall pressure that is a function of the amplitude of the modes of said overall pressure is defined; ii) the model of the overall pressure at the coordinates (x0, y0, z0) of said measurement point of said pressure sensor is calculated; iii) said amplitude of said modes of said overall pressure is determined by identifying oscillations of each mode of said modal breakdown of said local pressure at said local-pressure measurement point; and d) a knock indicator is determined, said knock indicator being a direct or indirect function of said overall pressure in the cylinder.
A coating agent for a solid preparation, said coating agent comprising lactose and a swelling clay, but not comprising a water-soluble polymer, wherein the weight of said swelling clay is 20 to 50% with respect to the weight of the solid content.
An agent which reduces Fc receptor binding by enzymatic degradation of endogenous serum antibodies for use in a method of treating a disease, wherein the agent is an endoglycosidase, a protease or a protein-N-glycanase and the method increases the therapeutic potency of an antibody, wherein the mode of action of said antibody relies on the Fc:FcR interaction, and wherein the method comprises the steps: (a) administering said agent to a subject; and subsequently, (b) after a set time interval, administering said antibody to the subject. (a) administering said agent to a subject; and subsequently, (b) after a set time interval, administering said antibody to the subject.
An electric power system configured to supply one or more direct voltages from shore-side to a vessel, the electric power system comprising: - one or more controllable converters configured to receive electric power from a shore-side alternating voltage network and to produce the one or more direct voltages, - electric connectors configured to connect to an electric circuitry of the vessel, and - one or more direct voltage links (106, 107) configured to transfer the one or more direct voltages from the one or more controllable converters to the electric connectors, characterized in that the electric power system further comprises a control system configured to receive a control signal from the vessel and to control the one or more controllable converters in accordance with the received control signal so as to control the one or more direct voltages to be suitable for the vessel. - one or more controllable converters configured to receive electric power from a shore-side alternating voltage network and to produce the one or more direct voltages, - electric connectors configured to connect to an electric circuitry of the vessel, and - one or more direct voltage links (106, 107) configured to transfer the one or more direct voltages from the one or more controllable converters to the electric connectors,
Power semiconductor module comprising at least one power semiconductor element, wherein the at least one power semiconductor element is connected in an electrically insulating and thermally conductive manner to a cooling element via a dielectric material layer, wherein the dielectric material layer is laid flat on a surface of the cooling element and connected with a non-positive fit to the cooling element by means of a first force acting orthogonally to the surface of the cooling element, wherein the dielectric material layer is directly contacted on the cooling element, wherein the power semiconductor element has a power semiconductor which is cohesively connected to a first metallic contacting element on a side facing the dielectric material layer, wherein the power semiconductor element is laid on the dielectric material layer via the first metallic contacting element and is connected with a non-positive fit to the dielectric material layer by the first force, wherein the first metallic contacting element is directly contacted on the dielectric material layer, wherein a control contact, in particular a gate contact, of the power semiconductor is connected, in particular via a bond connection, to a third metallic contacting element, characterised in that the third metallic contacting element is connected with a non-positive fit to the cooling element by means of a second force acting orthogonally to the surface of the cooling element. wherein the at least one power semiconductor element is connected in an electrically insulating and thermally conductive manner to a cooling element via a dielectric material layer, wherein the dielectric material layer is laid flat on a surface of the cooling element and connected with a non-positive fit to the cooling element by means of a first force acting orthogonally to the surface of the cooling element, wherein the dielectric material layer is directly contacted on the cooling element, wherein the power semiconductor element has a power semiconductor which is cohesively connected to a first metallic contacting element on a side facing the dielectric material layer, wherein the power semiconductor element is laid on the dielectric material layer via the first metallic contacting element and is connected with a non-positive fit to the dielectric material layer by the first force, wherein the first metallic contacting element is directly contacted on the dielectric material layer, wherein a control contact, in particular a gate contact, of the power semiconductor is connected, in particular via a bond connection, to a third metallic contacting element, characterised in that the third metallic contacting element is connected with a non-positive fit to the cooling element by means of a second force acting orthogonally to the surface of the cooling element.
Air preparation device for a vehicle, having: an air dryer with an air dryer housing, a multi-circuit protection valve with a valve housing, wherein the air dryer housing and the valve housing are connected to each other, characterised in that the air dryer housing has a protruding element which engages at least partially over the valve housing at least at one point. an air dryer with an air dryer housing, a multi-circuit protection valve with a valve housing, wherein the air dryer housing and the valve housing are connected to each other, characterised in that the air dryer housing has a protruding element which engages at least partially over the valve housing at least at one point.