mhurhangee/patent-ind-claim-en huggingface dataset:
Household appliance , in particular a household dishwasher, having a functional compartment , in particular a dishwashing compartment, an insulation arrangement provided on the outer side of the functional compartment , in particular the dishwashing compartment, for thermal and/or acoustic insulation of the functional compartment , in particular the dishwashing compartment, and a component arranged on the outer side of the functional compartment , in particular the dishwashing compartment, wherein the insulation arrangement for thermal and/or acoustic insulation of the functional compartment , in particular the dishwashing compartment, has an insulation element for thermal and/or acoustic insulation of the functional compartment , in particular the dishwashing compartment, wherein the insulation element for thermal and/or acoustic insulation of the functional compartment , in particular the dishwashing compartment, is made in one piece from a plastic material, wherein the component is encapsulated at least to some extent in the plastic material and wherein, in a cured and/or cross-linked state, the plastic material has preferably adhesive properties, so that the insulation element for thermal and/or acoustic insulation of the functional compartment , in particular the dishwashing compartment, adheres to the functional compartment , in particular the dishwashing compartment, by way of a surface which is directed towards the functional compartment , in particular the dishwashing compartment, characterised in that the insulation element for thermal and/or acoustic insulation of the functional compartment , in particular the dishwashing compartment, adhering to the functional compartment , in particular the dishwashing compartment, can be separated from the functional compartment in a non-destructive manner by way of the surface which is directed towards the functional component , in particular the dishwashing compartment.
Method for the characterisation of plaque (LP, FP, CP) in a region of interest inside an examination subject by means of a plurality of image data sets (BD LE , BD HE ) , which have been reconstructed from a plurality of projection data sets, which sets were acquired by means of a CT device using different X-ray energy spectra in each case, comprising at least the following steps: - acquiring (I) the image data sets (BD LE , BD HE ) , which comprise a plurality of pixels, - acquisition on a pixel by pixel basis (II, II') of spectral parameter values (SP1, SP2), comprising an acquisition (II) of a dual energy ratio, using at least two image data sets (BD LE , BD HE ), - acquisition on a pixel by pixel basis (III) of character parameter values (CP) to characterise the plaques (LP, FP, CP) based on the spectral parameter values (SP1, SP2). - acquiring (I) the image data sets (BD LE , BD HE ) , which comprise a plurality of pixels, - acquisition on a pixel by pixel basis (II, II') of spectral parameter values (SP1, SP2), comprising an acquisition (II) of a dual energy ratio, using at least two image data sets (BD LE , BD HE ), - acquisition on a pixel by pixel basis (III) of character parameter values (CP) to characterise the plaques (LP, FP, CP) based on the spectral parameter values (SP1, SP2).
An ophthalmosurgical injector system comprising: - an injector having: a handpiece , a plunger , and a dispensing device ; - an intraocular lens having an optic body with an external diameter (D2) and two C-shaped haptic arms protruding from the optic body ; and - a cartridge configured to receive the intraocular lens and to be inserted in the injector , wherein the dispensing device has an inlet opening at a proximal end and an outlet opening at a distal end thereof, wherein the dispensing device is configured to convey the intraocular lens from the cartridge through the inlet opening to the outlet opening of the dispensing device when the plunger is moved forward, wherein the intraocular lens is held and stored in the cartridge during a storage period in a compressed and preloaded state in which a subregion of each of the C-shaped haptic arms bears on the optic body and covers the optic body in the subregion , and wherein the optic body of the intraocular lens in the preloaded state has, in a plan view, a circular surface area not covered by the haptic arms , which circular surface area has a diameter (D1) of at least 4.0 mm, wherein the injector system has a locking device for locking the plunger by connecting the plunger to the cartridge , wherein the subregion is a surface representing part of a circular ring which is formed between a ring with the external diameter (D2) of the optic body and a ring with the diameter (D1) of the circular surface area. - an injector having: a handpiece , a plunger , and a dispensing device ; a handpiece , a plunger , and a dispensing device ; - an intraocular lens having an optic body with an external diameter (D2) and two C-shaped haptic arms protruding from the optic body ; and - a cartridge configured to receive the intraocular lens and to be inserted in the injector , wherein the dispensing device has an inlet opening at a proximal end and an outlet opening at a distal end thereof, wherein the dispensing device is configured to convey the intraocular lens from the cartridge through the inlet opening to the outlet opening of the dispensing device when the plunger is moved forward, wherein the intraocular lens is held and stored in the cartridge during a storage period in a compressed and preloaded state in which a subregion of each of the C-shaped haptic arms bears on the optic body and covers the optic body in the subregion , and wherein the optic body of the intraocular lens in the preloaded state has, in a plan view, a circular surface area not covered by the haptic arms , which circular surface area has a diameter (D1) of at least 4.0 mm, wherein the injector system has a locking device for locking the plunger by connecting the plunger to the cartridge , wherein the subregion is a surface representing part of a circular ring which is formed between a ring with the external diameter (D2) of the optic body and a ring with the diameter (D1) of the circular surface area.
A method of signaling of coding mode including an Intra-block copy, IntraBC, mode for a picture, wherein the picture is divided into multiple coding units, the method comprising: receiving input data associated with a current coding unit in a current slice of a current picture; if IntraBC mode is selected for the current coding unit: encoding or decoding a partition mode associated with the IntraBC mode selected from a partition mode group for the current coding unit using a binary sub-tree; and encoding or decoding the current coding unit according to the partition mode selected using Intra motion compensated prediction based on reconstructed pixels of the current picture, wherein the current coding unit is partitioned into multiple sub-blocks according to the partition mode, characterized in that the binary sub-tree consists of all IntraBC members of the partition mode group and only those. receiving input data associated with a current coding unit in a current slice of a current picture; if IntraBC mode is selected for the current coding unit: encoding or decoding a partition mode associated with the IntraBC mode selected from a partition mode group for the current coding unit using a binary sub-tree; and encoding or decoding the current coding unit according to the partition mode selected using Intra motion compensated prediction based on reconstructed pixels of the current picture, wherein the current coding unit is partitioned into multiple sub-blocks according to the partition mode, encoding or decoding a partition mode associated with the IntraBC mode selected from a partition mode group for the current coding unit using a binary sub-tree; and encoding or decoding the current coding unit according to the partition mode selected using Intra motion compensated prediction based on reconstructed pixels of the current picture, wherein the current coding unit is partitioned into multiple sub-blocks according to the partition mode, characterized in that the binary sub-tree consists of all IntraBC members of the partition mode group and only those.
A method for operating a terminal device , wherein different numerologies are configured for at least two carriers and at least two active bandwidth parts, BWPs, the at least two carriers belongs to a Timing Advance Group, TAG, each active BWP is associated with a numerology and the numerology comprises subcarrier spacing, SCS, the method comprising: receiving a time advance, TA, command from a network device ; determining a TA granularity; and determining a TA value based at least partly on the TA command and the TA granularity, wherein the TA granularity of the TAG is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two active BWPs. receiving a time advance, TA, command from a network device ; determining a TA granularity; and determining a TA value based at least partly on the TA command and the TA granularity, wherein the TA granularity of the TAG is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two active BWPs.
A separator comprising: a polyolefin-based separator substrate configured to have a porous structure; a first coating portion comprising a mixture of inorganic particles and a binder polymer; and a second coating portion comprising a material including SiO 2 , Na 2 CO 3 , or K 2 CO 3 , wherein the first coating portion and the second coating portion are located on the separator substrate or are located in pores formed in the separator substrate and wherein, the first coating portion is located on the separator substrate, and the second coating portion is located on the first coating portion. a polyolefin-based separator substrate configured to have a porous structure; a first coating portion comprising a mixture of inorganic particles and a binder polymer; and a second coating portion comprising a material including SiO 2 , Na 2 CO 3 , or K 2 CO 3 , wherein the first coating portion and the second coating portion are located on the separator substrate or are located in pores formed in the separator substrate and wherein, the first coating portion is located on the separator substrate, and the second coating portion is located on the first coating portion.
A substrate comprising: a first layer including a first insulating layer and an interconnection layer formed on the first insulating layer ; a second layer including a plurality of second insulating layers , and a plurality of interconnection layers formed inside the insulating layers , each of the second insulating layers having an elastic modulus that is different from an elastic modulus of the first insulating layer ; and a core layer (123; 323) that is sandwiched by the first layer and the second layer , and is more rigid than the first insulating layer and the second insulating layer . a first layer including a first insulating layer and an interconnection layer formed on the first insulating layer ; a second layer including a plurality of second insulating layers , and a plurality of interconnection layers formed inside the insulating layers , each of the second insulating layers having an elastic modulus that is different from an elastic modulus of the first insulating layer ; and a core layer (123; 323) that is sandwiched by the first layer and the second layer , and is more rigid than the first insulating layer and the second insulating layer .
An air filter cartridge comprising: (a) a media pack having upstream and downstream opposite flow faces and first and second opposite sides extending between the upstream and downstream opposite flow faces ; the media pack further includes third and fourth opposite sides extending between the upstream and downstream opposite flow faces ; (b) a first side panel against the first side of the media pack ; a second side panel against the second side of the media pack; a third side panel against the third side of the media pack; and a fourth side panel against the fourth side of the media pack, and (c) a gasket arrangement including: (i) a perimeter gasket member against the downstream flow face and around a perimeter of the downstream flow face ; and (ii) a side gasket member , integral with the perimeter gasket member , and adjacent to at least a partial extension of the first side panel ; characterized in that the side gasket member includes no portion against the second, third, and fourth side panel; the second side panel , the third side panel , and the fourth side panel being gasket-free. (a) a media pack having upstream and downstream opposite flow faces and first and second opposite sides extending between the upstream and downstream opposite flow faces ; the media pack further includes third and fourth opposite sides extending between the upstream and downstream opposite flow faces ; (b) a first side panel against the first side of the media pack ; a second side panel against the second side of the media pack; a third side panel against the third side of the media pack; and a fourth side panel against the fourth side of the media pack, and (c) a gasket arrangement including: (i) a perimeter gasket member against the downstream flow face and around a perimeter of the downstream flow face ; and (ii) a side gasket member , integral with the perimeter gasket member , and adjacent to at least a partial extension of the first side panel ; (i) a perimeter gasket member against the downstream flow face and around a perimeter of the downstream flow face ; and (ii) a side gasket member , integral with the perimeter gasket member , and adjacent to at least a partial extension of the first side panel ;
A method performed by a terminal in a communication system, the method comprising: transmitting, to another terminal, sidelink data on a sidelink; determining whether a radio link failure, RLF, associated with the sidelink is detected based on sidelink hybrid automatic repeat request, HARQ, information for the sidelink data; and in case that the RLF associated with the sidelink is detected, transmitting, to a base station, information indicating that the RLF associated with the sidelink occurs, wherein the terminal is connected with the base station, wherein it is determined that the RLF is detected in response to the sidelink HARQ information being not received during a threshold, and wherein the threshold starts a timing of a last reception of the sidelink HARQ information. transmitting, to another terminal, sidelink data on a sidelink; determining whether a radio link failure, RLF, associated with the sidelink is detected based on sidelink hybrid automatic repeat request, HARQ, information for the sidelink data; and in case that the RLF associated with the sidelink is detected, transmitting, to a base station, information indicating that the RLF associated with the sidelink occurs, wherein the terminal is connected with the base station, wherein it is determined that the RLF is detected in response to the sidelink HARQ information being not received during a threshold, and wherein the threshold starts a timing of a last reception of the sidelink HARQ information.
Supervision method for a vehicle (V) comprising an on-board network (RB) supplied with electrical energy by a service battery (BS) and a converter (CV), an isolation device (DI) capable of isolating the latter (BS, CV) from each other or of coupling the latter (BS, CV), and a test device (DT) capable of carrying out a test of said service battery (BS) to determine a minimum voltage at the terminals of the latter (BS) and an internal resistance of said service battery (BS) , characterized in that it comprises a step (10-110) in which, in the event of a test request, it is determined whether said isolation device (DI) is capable of ensuring isolation, and if so, said isolation is ordered and then said test is ordered to be carried out.
Heat exchanger, in particular a condenser, comprising two parallel end closure plates having made a coolant inlet and outlet and at least one inlet and an outlet of the refrigerant, a heat exchange unit arranged between the closure plates and including at least one coolant compartment and at least one refrigerant compartment, separated by an inner plate , wherein the coolant compartments and refrigerant compartments are arranged alternately and connected such that they form together with said inlets and outlets separate hydraulic circuits for the coolant and refrigerant, and in each of the compartments a turbulator panel is arranged wherein the turbulator panels of the refrigerant circuit comprise on their surface first disturbing elements having a wave shape with a rounded or rectangular contour wherein they have an orientation configured to ensure a refrigerant flow along the waves which determine the height of the turbulator panel of the refrigerant circuit, wherein the turbulator panels of the coolant circuit comprise on their surface second disturbing elements being approximatively some triangular, rectangular or circular contoured projections which are cut and/or embossed in the turbulator panel and arranged in rows along the cutting lines , wherein they have an orientation configured to ensure the coolant flow passing along the cutting line which determine the height of the turbulator panel of the coolant circuit, wherein the shape of the first disturbing elements is different from the shape of the second disturbing elements , whereas the shape of the turbulator panels is slowing down and disturbing of the refrigerant and the coolant, while ensuring a low pressure drop of their flow to achieve a high heat exchange coefficient and wherein the height of the turbulator panel of the coolant circuit is from 1 to 2 times greater than the height of the turbulator panel of the refrigerant circuit.
Coupling element , in particular coupling sleeve, for a hydraulic coupling on a pressure medium line, with a housing , a sleeve inner body , a pressure sleeve and a valve tappet , wherein the housing has at least one flow channel for a pressure medium and a coupling axis A, wherein the sleeve inner body , the pressure sleeve and the valve tappet are held so as to be displaceable along the coupling axis A within the housing , wherein at least the sleeve inner body , the pressure sleeve and the valve tappet can be displaced during a coupling process from an initial position along the coupling axis (A) in a first direction (R1) into the housing into a coupling position, wherein, in the coupling position, a coupling plug is fixable to the coupling element by means of a locking means , wherein at least the sleeve inner body , the pressure sleeve and the valve tappet can be displaced from the coupling position in a second direction (R2) opposite the first direction (R1) along the coupling axis A into a stop position, wherein, in the stop position, a further movement at least of the pressure sleeve is blocked in the second direction (R2), wherein the sleeve inner body and the valve tappet can be moved further in the second direction (R2) into an open position, wherein, in the open position, a flow cross-section is released between pressure sleeve and valve tappet , characterised in that , in the open position, an interlocking means acts on the sleeve inner body and the valve tappet , wherein a sleeve body is provided, wherein the sleeve inner body is guided in the sleeve body , wherein a return means in the form of a spring is arranged between sleeve body and sleeve inner body , wherein the locking means has at least one locking ball , at least one locking sleeve and at least one spring element and wherein the locking means acts between sleeve body and sleeve inner body .
Impeller with an axial inlet side as well as several impeller blades spaced apart in the circumferential direction and extending for at least a section in the radial direction, having a blade contour which increases at least partly radially outward as seen in the radial cross section and points toward the inlet side, wherein the impeller has a diameter d and an extension in an axial direction parallel to an axis of rotation, characterized in that the blade contour has an edge design, said edge desing looking in cross section has a form determined by the formula f(x) = n * (0.025 * x 2 - 0.8 * x + c), so that a particle adherence during a rotation of the impeller is reduced, wherein n and x are defined as 3 ≥ n ≥ 1/3, d ≥ x ≥ d/50, and c is a variable number.
Flange for a fluidic connection bridge , the flange configured to be assembled with a connector comprising two inlet orifices and one outlet orifice of a temperature control device , in particular a cooling device, for an electrical component capable of releasing heat during its operation, in particular for an electrical energy storage module, the flange comprising a fluid inlet and a fluid outlet, both configured to be each connected to a respective external duct (805; 806), or pipe, this flange being designed to distribute a flow of refrigerant fluid coming from the fluid inlet of the flange to at least two distribution orifices of the flange by splitting this flow of refrigerant fluid into at least two flows of fluid, distribution orifices configured to distribute refrigerant fluid respectively to two inlet orifices of the connector on the temperature control device, the flange comprising a fluid path communicating with the fluid inlet of the flange, this fluid inlet being in particular formed by an orifice in the flange, this fluid path being configured to distribute the refrigerant fluid coming from this fluid inlet to the two distribution orifices, the fluid path being formed by a slot made on a body of the flange and closed by a cover fixed in a sealed manner to the body, this cover being in particular of elongate shape, the flange additionally comprising a fluid collection orifice configured to collect refrigerant fluid coming from the connector of the temperature control device, this collection orifice communicating with the fluid outlet of the flange via a channel in the flange, the channel in particular being of cylindrical shape, this collection orifice being designed to be placed opposite the fluid outlet orifice of the connector of the temperature control device, the fluid distribution and collection orifices on the flange each comprising a nozzle, in particular of substantially conical shape, the nozzle configured in each case to cooperate with one of the two inlet orifices and the outlet orifice on the connector of the temperature control device.