mhurhangee/patent-ind-claim-en huggingface dataset:
Electronics module system for a motor vehicle, comprising - a covering part made of a polymeric material and - at least one electronics module connected to or arranged on the covering part , wherein the covering part has an outer side , which is visible when used as intended on the motor vehicle, and an inner side opposite the outer side , wherein a subsection is produced and/or configured in one piece together with the covering part , and the subsection forms a form-fitting receptacle for the electronics module , characterised in that the covering part has at least one flange region bordering the outer side and moulded in one piece with the covering part , wherein the subsection is a subsection of the flange region and the flange region otherwise serves for connecting to components bordering the covering part, so that the flange region thus takes on the dual function of connecting and receiving the electronics module. - a covering part made of a polymeric material and - at least one electronics module connected to or arranged on the covering part ,
A fastener assembly comprising: - at least one of a bolt member and a nut member ; and - a drive element adapted for engagement by an installation/driving tool, said drive element comprising a body ; wherein the body of the drive element is joined either to the bolt member or to the nut member by means of an interposed interlayer structure , the interlayer structure being adapted to fracture in torsional shear and/or tensile stress in response to a relative rotational and/or tensile force applied to the drive element with the installation/driving tool, wherein the interlayer structure has a thickness of between about 0.2 μm and about 5.0 mm, preferably of between about 0.25 μm and about 1.0 mm, and more preferably of between about 0.2 μm and about 500.0 μm, wherein the thickness of the interlayer structure is selected such as to precisely define a shearing torque of the interlayer structure , wherein the drive element is completely removed from the bolt member or the nut member after triggering the interlayer structure , and wherein the interlayer structure is formed by joining the drive element to the bolt member or to the nut member of the fastener assembly by means of friction stir, welding, brazing and/or soldering. - at least one of a bolt member and a nut member ; and - a drive element adapted for engagement by an installation/driving tool, said drive element comprising a body ; wherein the body of the drive element is joined either to the bolt member or to the nut member by means of an interposed interlayer structure , the interlayer structure being adapted to fracture in torsional shear and/or tensile stress in response to a relative rotational and/or tensile force applied to the drive element with the installation/driving tool, wherein the interlayer structure has a thickness of between about 0.2 μm and about 5.0 mm, preferably of between about 0.25 μm and about 1.0 mm, and more preferably of between about 0.2 μm and about 500.0 μm, wherein the thickness of the interlayer structure is selected such as to precisely define a shearing torque of the interlayer structure , wherein the drive element is completely removed from the bolt member or the nut member after triggering the interlayer structure , and wherein the interlayer structure is formed by joining the drive element to the bolt member or to the nut member of the fastener assembly by means of friction stir, welding, brazing and/or soldering.
A coupling assembly comprising a coupling , a protective ring and two tubulars , the coupling of generally cylindrical shape with a channel therethrough, the coupling having at least one internal thread and two coupling ends and a pin end of at least one of the two tubulars having an external thread for threaded mating therewith so that the coupling assembly provides a connection between said two tubulars , the protective ring comprising a ring body for positioning adjacent an interior wall of said coupling between the two ends thereof, said ring body being generally cylindrical and having a ring channel therethrough, wherein said protective ring comprises a tongue and an end of at least one of the two tubulars has a groove , the tongue being slotted into the groove and slideably disposed in the groove .
An optical aperture multiplier comprising: (a) a first optical waveguide having a direction of elongation, said first optical waveguide having first and second pairs of parallel faces forming a rectangular cross-section, wherein a plurality of partially reflecting surfaces at least partially traverse said first optical waveguide , said partially reflecting surfaces being at an oblique angle to said direction of elongation; and (b) a second optical waveguide optically coupled with said first optical waveguide , one of the faces of the first pair of parallel faces of the first optical waveguide being adjacent to the second optical waveguide , said second optical waveguide having a third pair of parallel faces forming a slab-type waveguide, wherein a plurality of partially reflecting surfaces at least partially traverse said second optical waveguide , said partially reflecting surfaces being at an oblique angle to said third pair of parallel faces , wherein said optical coupling and said partially reflecting surfaces of said first and second waveguides are configured such that, when an image is coupled into said first optical waveguide with an initial direction of propagation at a coupling angle oblique to both said first and second pairs of parallel faces , the image advances by four-fold internal reflection along said first optical waveguide , with a proportion of intensity of the image reflected at said partially reflecting surfaces so as to be coupled into said second optical waveguide , and propagating through two-fold reflection within said second optical waveguide , with a proportion of intensity of the image reflected at said partially reflecting surfaces so as to be directed outwards from one of said parallel faces as a visible image, characterized in that a continuous common external cover is provided on the second and third pairs of parallel faces to maintain the external face surface quality, parallelism and perpendicularity to preserve image quality of an image propagating within the first and second optical waveguides . (a) a first optical waveguide having a direction of elongation, said first optical waveguide having first and second pairs of parallel faces forming a rectangular cross-section, wherein a plurality of partially reflecting surfaces at least partially traverse said first optical waveguide , said partially reflecting surfaces being at an oblique angle to said direction of elongation; and (b) a second optical waveguide optically coupled with said first optical waveguide , one of the faces of the first pair of parallel faces of the first optical waveguide being adjacent to the second optical waveguide , said second optical waveguide having a third pair of parallel faces forming a slab-type waveguide, wherein a plurality of partially reflecting surfaces at least partially traverse said second optical waveguide , said partially reflecting surfaces being at an oblique angle to said third pair of parallel faces ,
An information processing apparatus comprising: a communication unit configured to receive a connection authentication request from a new device other than a plurality of devices configuring a network in which the plurality of devices including the information processing apparatus make wireless communication on a one-to-one basis to be mutually connected; and a control unit configured to transfer the connection authentication request to the plurality of devices in a case of receiving the connection authentication request, and to permit the new device to connect to the network on the basis of the responses to the connection authentication request from the plurality of devices, wherein the control unit gives the connection permission on the basis of the responses from a predetermined number of devices having an authority to give connection permission among the plurality of devices; wherein the control unit sets the authority to give connection permission to a predetermined number of devices among the plurality of devices; wherein in a case where a device having the authority to give connection permission leaves the network, the control unit performs control to assign the authority to give connection permission from the device which leaves to a device other than the device which leaves among the plurality of devices. a communication unit configured to receive a connection authentication request from a new device other than a plurality of devices configuring a network in which the plurality of devices including the information processing apparatus make wireless communication on a one-to-one basis to be mutually connected; and a control unit configured to transfer the connection authentication request to the plurality of devices in a case of receiving the connection authentication request, and to permit the new device to connect to the network on the basis of the responses to the connection authentication request from the plurality of devices, wherein the control unit gives the connection permission on the basis of the responses from a predetermined number of devices having an authority to give connection permission among the plurality of devices; wherein the control unit sets the authority to give connection permission to a predetermined number of devices among the plurality of devices; wherein in a case where a device having the authority to give connection permission leaves the network, the control unit performs control to assign the authority to give connection permission from the device which leaves to a device other than the device which leaves among the plurality of devices.
A method performed by a user equipment, UE, for configuring control data communications based on a time division duplexing, TDD, subframe reconfiguration, comprising: detecting a TDD subframe reconfiguration; characterised by detecting a conflict with a scheduled channel state information, CSI, or a sounding reference signal, SRS, transmission; and modifying , based on the TDD subframe reconfiguration, at least a periodicity of; the CSI transmission if CSI conflict is detected or modifying, based on the TDD subframe reconfiguration, at least a periodicity of the SRS transmission if SRS conflict is detected. detecting a TDD subframe reconfiguration; characterised by detecting a conflict with a scheduled channel state information, CSI, or a sounding reference signal, SRS, transmission; and modifying , based on the TDD subframe reconfiguration, at least a periodicity of; the CSI transmission if CSI conflict is detected or modifying, based on the TDD subframe reconfiguration, at least a periodicity of the SRS transmission if SRS conflict is detected.
Assembly system including a member made of at least a first material including a staff and a shoulder , the staff of the member being received in the aperture of a part made of a second material, including no or a few plastic domain, the assembly system including one single elastic locking element made of a third material arranged to elastically attach the part between the shoulder of said member and said one single locking element , and wherein said one single locking element is a washer whose internal wall radially grips the staff of said member and whose peripheral portion exerts an elastic axial force vertical to the shoulder of said member in order to secure the member - part - locking element assembly, the secure assembly of the member - part - locking element being configured to exert only an elastic axial force vertical to the shoulder of the member by the peripheral portion of the locking element conjugate with the radial gripping of the internal wall of this locking element against the staff of the member , the locking element including a surface that is not larger than that of the shoulder of said member.
Laundry treatment appliance , comprising a user interface , said user interface comprising an assembly , said assembly comprising at least one fixed element , at least one rotary element , and a display , whereby said at least one rotary element is built as user interface element , whereby said display is arranged inside said user interface element , whereby said at least one said rotary element is axially constrained by at least one said fixed element , whereby said rotary elements comprise a rotary knob and a rotary encoder , characterized in that said fixed elements comprise a box and a display window , whereby said rotary encoder is axially constrained between said box and said display window in their respective mounted positions, and whereby said display window is engaged with said box by at least one connection element .
A combined device for heating domestic water and water for heating a room (L), said combined device comprising: - a storage tank for domestic water, - a domestic water circuit in fluid communication with the storage tank , - a heating water circuit , - one or several heat exchangers for a heat pump for transferring heat to heating water present in the heating water circuit and to domestic water present in the domestic water circuit, - fastening means for fastening the combined device to a support , - a coupling plate for coupling the heating water circuit to at least one heating water installation of the room and for coupling the domestic water circuit to a domestic water installation of the room, characterized in that the fastening means are configured to suspend the combined device fully above the ground. - a storage tank for domestic water, - a domestic water circuit in fluid communication with the storage tank , - a heating water circuit , - one or several heat exchangers for a heat pump for transferring heat to heating water present in the heating water circuit and to domestic water present in the domestic water circuit, - fastening means for fastening the combined device to a support , - a coupling plate for coupling the heating water circuit to at least one heating water installation of the room and for coupling the domestic water circuit to a domestic water installation of the room,
An iron based powder consists of particles of reduced copper oxide diffusion bonded to the surface of an atomized iron powder wherein the content of copper is 1-5%, preferably 1.5-4% and most preferably 1.5-3.5% by weight of the iron based powder characterized in that the maximum particle size of the iron-based powder is 250 μm, at least 75% is below 150 μm and at most 30% is below 45 μm measured according to IS04497 1983, the apparent density is at least 2.70 g/cm 3 measured according to ISO 3923:2008, and the oxygen content is at most 0.16% by weight, and the content of other inevitable impurities is at most 1% by weight, and the iron-based powder having a SSF- factor of at most 2.0, preferably at most 1.7 wherein the SSF-factor is defined as the quotation between the Cu content in weight% in the fraction of the iron based powder which passes a 45 μm sieve and the Cu content in in weight% in the fraction of the iron based powder which do not passes a 45 μm sieve.
A fluid filter comprising: a housing providing an inlet port and an outlet port and enclosing a volume therebetween; and a coarse filter fabric attached to a fine filter fabric to form an integrated flexible filter sheet interposed in a path between the inlet port and the outlet port and providing two paths for fluid flowing from the inlet port , one path passingthrough the coarse filter fabric and one path passing through the fine filter fabric , characterized in that the flexible filter sheet is formed into a bag having an opening attached to a rim of the inlet port , wherein only the coarse filter fabric is attached to the inlet port , and wherein the fine filter fabric is positioned to lie closer to the outlet than the coarse filter fabric . a housing providing an inlet port and an outlet port and enclosing a volume therebetween; and a coarse filter fabric attached to a fine filter fabric to form an integrated flexible filter sheet interposed in a path between the inlet port and the outlet port and providing two paths for fluid flowing from the inlet port , one path passingthrough the coarse filter fabric and one path passing through the fine filter fabric , characterized in that the flexible filter sheet is formed into a bag having an opening attached to a rim of the inlet port , wherein only the coarse filter fabric is attached to the inlet port , and wherein the fine filter fabric is positioned to lie closer to the outlet than the coarse filter fabric .
A method comprising: determining (S402), by an access point configured to operate on a channel according to a first wireless technology, upcoming interference associated with a second wireless technology on a channel on which the access point is currently operating; determining (S408) if there are one or more adjacent channels for the access point to switch to, the one or more adjacent channels having a same bandwidth as the channel on which the access point is currently operating; and based on at least a type of the access point and availability of other channels for the access point to switch to, selecting, by the access point, a process to proactively avoid interference between signals of the access point and signals of the second wireless technology, wherein, if the type of the access point is not IEEE 802.11ax, the process is switching (S412) to a channel having a lower bandwidth than the channel on which the access point is currently operating, and wherein switching to the channel having the lower bandwidth is selected as the process responsive to determining that there is no adjacent channel for the access point to switch to. determining (S402), by an access point configured to operate on a channel according to a first wireless technology, upcoming interference associated with a second wireless technology on a channel on which the access point is currently operating; determining (S408) if there are one or more adjacent channels for the access point to switch to, the one or more adjacent channels having a same bandwidth as the channel on which the access point is currently operating; and based on at least a type of the access point and availability of other channels for the access point to switch to, selecting, by the access point, a process to proactively avoid interference between signals of the access point and signals of the second wireless technology, wherein, if the type of the access point is not IEEE 802.11ax, the process is switching (S412) to a channel having a lower bandwidth than the channel on which the access point is currently operating, and wherein switching to the channel having the lower bandwidth is selected as the process responsive to determining that there is no adjacent channel for the access point to switch to.
A method of programming a memory device which includes a plurality of memory cells , a top dummy storage region (DMX1) with top dummy cells, a bottom dummy storage region (DMX2) with bottom dummy cells, wherein the memory cells are coupled in series between the top dummy cell and the bottom dummy cell, a plurality of word lines (WL1, WL2, WL3, WL4) and a plurality of bit lines (BL 1 -BL M ) form in a substrate, the method comprising: pre-charging a selected bit line among the plurality of bit lines (BL 1 -BL M ), a channel region in the substrate and a source region in the substrate during a first period (T1); applying a negative pre-pulse voltage(V PP5 ) to the bottom dummy storage region (DMX2) during the first period (T1); and programming a selected memory cell among the plurality of memory cells during a second period subsequent to the first period (T1), wherein the selected memory cell is coupled to the selected bit line and a selected word line among the plurality of word lines (WL1, WL2, WL3, WL4, WL 1 -WL N ); and pre-charging the selected bit line by applying a first pre-pulse voltage (V PP1 ) to the selected bit line during the first period (T1); applying a second pre-pulse voltage(V PP2 )to the top dummy storage region (DMX1) during the first period (T1); pre-charging the channel region in the substrate by applying a third pre-pulse voltage(V PP3 ) to the channel region in the substrate during the first period (T1); and pre-charging the source region in the substrate by applying a fourth pre-pulse voltage (V PP4 ) to the source region in the substrate during the first period (T1); and wherein the first through the fourth pre-pulse voltages (V PP1 -V PP4 ) are positive voltages. pre-charging a selected bit line among the plurality of bit lines (BL 1 -BL M ), a channel region in the substrate and a source region in the substrate during a first period (T1); applying a negative pre-pulse voltage(V PP5 ) to the bottom dummy storage region (DMX2) during the first period (T1); and programming a selected memory cell among the plurality of memory cells during a second period subsequent to the first period (T1), wherein the selected memory cell is coupled to the selected bit line and a selected word line among the plurality of word lines (WL1, WL2, WL3, WL4, WL 1 -WL N ); and pre-charging the selected bit line by applying a first pre-pulse voltage (V PP1 ) to the selected bit line during the first period (T1); applying a second pre-pulse voltage(V PP2 )to the top dummy storage region (DMX1) during the first period (T1); pre-charging the channel region in the substrate by applying a third pre-pulse voltage(V PP3 ) to the channel region in the substrate during the first period (T1); and pre-charging the source region in the substrate by applying a fourth pre-pulse voltage (V PP4 ) to the source region in the substrate during the first period (T1); and wherein the first through the fourth pre-pulse voltages (V PP1 -V PP4 ) are positive voltages.