mhurhangee/ep-ind-claims huggingface dataset:
A spunbonded nonwoven fabric-laminated multilayer structure comprising an elastic nonwoven fabric which contains a low crystalline polypropylene satisfying (a) to (f) and an extensible spunbonded nonwoven fabric having an elongation at maximum load of not less than 50% in at least one direction, the extensible spunbonded nonwoven fabric being laminated on both surfaces of the elastic nonwoven fabric: (a) mmmm = 20 to 60 mol % (b) rrrr / 1 − mmmm ≤ 0.1 (c) rmrm > 2.5 mol % (d) mm × rr / mr 2 ≤ 2.0 (e) mass average molecular weight (Mw) = 10,000 to 200, 000 (f) molecular weight distribution (Mw/Mn) < 4, wherein the extensible spunbonded nonwoven fabric is characterized by comprising concentric sheath-core conjugate fibers wherein the core includes a lower MFR propylene polymer having MFR in the range of 1 to 1000 g/10 min and the sheath includes a higher MFR propylene polymer having MFR in the range of 1 to 1000 g/10 min with the difference in MFR being not less than 1 g/10 min, or an olefin polymer composition including 80 to 99 wt% of a crystalline propylene polymer and 20 to 1 wt.-% of a high-density polyethylene. (a) mmmm = 20 to 60 mol % (b) rrrr / 1 − mmmm ≤ 0.1 (c) rmrm > 2.5 mol % (d) mm × rr / mr 2 ≤ 2.0 (e) mass average molecular weight (Mw) = 10,000 to 200, 000 (f) molecular weight distribution (Mw/Mn) < 4,
A terminal, comprising: a generation module, configured to: when data processing of the terminal switches from a downlink sub frame to an adjacent uplink sub frame, generate a first guard period, wherein the first guard period is greater than or equal to 1 millisecond; and a processing module, configured to skip processing any signal in the first guard period; wherein when the first guard period is greater than 1 millisecond, the first guard period overlaps the downlink subframe and a last part of a first downlink subframe immediately preceding the downlink subframe; and the processing module is specifically configured to: skip receiving a downlink signal in the downlink subframe and the last part of the first downlink subframe; or wherein when the first guard period is greater than 1 millisecond, the first guard period overlaps the downlink subframe and a last part of an uplink subframe immediately preceding the downlink subframe; and the processing module is specifically configured to: skip receiving a downlink signal in the downlink subframe, and skip sending an uplink signal in the last part of the uplink subframe immediately preceding the downlink subframe. a generation module, configured to: when data processing of the terminal switches from a downlink sub frame to an adjacent uplink sub frame, generate a first guard period, wherein the first guard period is greater than or equal to 1 millisecond; and a processing module, configured to skip processing any signal in the first guard period; wherein when the first guard period is greater than 1 millisecond, the first guard period overlaps the downlink subframe and a last part of a first downlink subframe immediately preceding the downlink subframe; and the processing module is specifically configured to: skip receiving a downlink signal in the downlink subframe and the last part of the first downlink subframe; or wherein when the first guard period is greater than 1 millisecond, the first guard period overlaps the downlink subframe and a last part of an uplink subframe immediately preceding the downlink subframe; and the processing module is specifically configured to: skip receiving a downlink signal in the downlink subframe, and skip sending an uplink signal in the last part of the uplink subframe immediately preceding the downlink subframe.
A mounting element, for mounting an architectural covering between two opposing mounting surfaces (302, 304), the mounting element comprising: - an elongate mounting member which is elongated along a longitudinal direction and which has a first end (102.1), a second end (102.2), and at least one guide surface, and - an extension mechanism arranged at the first end (102.1), the extension mechanism being operable between: i) a retracted state, and ii) an extended state in which the extension mechanism abuts one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces (302, 304), and - a telescopic extender arranged at the second end (102.2), the telescopic extender being operable between a retracted configuration and an extended configuration so as to abut the other one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces (302, 304), and wherein the telescopic extender comprises: - a slidable body configured to slide along the guide surface parallel to the longitudinal direction in a first translation direction away from the first end (102.1) so as to lengthen the mounting element, and characterized in that the telescopic extender comprises: - a locking member mechanically coupled to the slidable body, the locking member being configured: i) to allow the slidable body to slide in the first translation direction, and ii) to engage the guide surface so as to prevent the slidable body from sliding in a second translation direction opposite the first translation direction. - an elongate mounting member which is elongated along a longitudinal direction and which has a first end (102.1), a second end (102.2), and at least one guide surface, and - an extension mechanism arranged at the first end (102.1), the extension mechanism being operable between: i) a retracted state, and ii) an extended state in which the extension mechanism abuts one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces (302, 304), and - a telescopic extender arranged at the second end (102.2), the telescopic extender being operable between a retracted configuration and an extended configuration so as to abut the other one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces (302, 304), and - a slidable body configured to slide along the guide surface parallel to the longitudinal direction in a first translation direction away from the first end (102.1) so as to lengthen the mounting element, and - a locking member mechanically coupled to the slidable body, the locking member being configured: i) to allow the slidable body to slide in the first translation direction, and ii) to engage the guide surface so as to prevent the slidable body from sliding in a second translation direction opposite the first translation direction.
An apparatus, comprising: at least one processor configured to execute software stored in a memory comprised in the apparatus, wherein the software thereby causes the apparatus to at least: retrieve, from a network site, a computer executable program; open a first connection to a data source device distinct from the network site; open, using the computer executable program, a second connection to a proxy device, distinct from the network site and the data source device, to request the proxy device to proxy content from the data source device, the second connection employing a first protocol and indicating the network site as a source of the computer executable program, and receive from the proxy device information of the data source device. retrieve, from a network site, a computer executable program; open a first connection to a data source device distinct from the network site; open, using the computer executable program, a second connection to a proxy device, distinct from the network site and the data source device, to request the proxy device to proxy content from the data source device, the second connection employing a first protocol and indicating the network site as a source of the computer executable program, and receive from the proxy device information of the data source device.
Bead wire (20, 20') for a tyre, characterized in that it comprises: - a core comprising at least one yarn of a multifilament textile fibre embedded in an organic matrix, - at least one outer layer (C4; C2) comprising an outer-layer metal wire wound around the core, - at least one intermediate layer (C1, C2, C3; C1) comprising an intermediate-layer metal wire wound around the core, said intermediate layer (C1, C2, C3; C1) being disposed between the core and the outer layer (C4; C2). - a core comprising at least one yarn of a multifilament textile fibre embedded in an organic matrix, - at least one outer layer (C4; C2) comprising an outer-layer metal wire wound around the core, - at least one intermediate layer (C1, C2, C3; C1) comprising an intermediate-layer metal wire wound around the core, said intermediate layer (C1, C2, C3; C1) being disposed between the core and the outer layer (C4; C2).
A composite tube assembly comprising: a composite tube comprising a distal end having a first conical section and a second conical section, wherein a distal end of the first conical section is in contact with a proximal end of the second conical section having the same outer diameter as the distal end of the first conical section, wherein a proximal end of the first conical section and a distal end of the second conical section have a smaller outer diameter than the distal end of the first conical section; an end fitting disposed around the second conical section, characterized by a locking ring disposed around the first conical section; and wherein the end fitting is coupled to the locking ring; and a retaining ring circumferentially disposed around the locking ring. a composite tube comprising a distal end having a first conical section and a second conical section, wherein a distal end of the first conical section is in contact with a proximal end of the second conical section having the same outer diameter as the distal end of the first conical section, wherein a proximal end of the first conical section and a distal end of the second conical section have a smaller outer diameter than the distal end of the first conical section; an end fitting disposed around the second conical section, characterized by a locking ring disposed around the first conical section; and wherein the end fitting is coupled to the locking ring; and a retaining ring circumferentially disposed around the locking ring.
Method for controlling an electric motor, implemented in a variable speed drive, said variable speed drive being connected to the electric motor through a transformer, which comprises a primary and a secondary, said primary of the transformer being connected to output phases of the variable speed drive and said secondary of the transformer being connected to said electric motor, consisting in: - executing an identification sequence of the transformer for determining at least gain data (ki) representing a transfer performed by the transformer; - generating a transfer module based on said determined gain data; - determining a start-up sequence of the electric motor to be implemented by the variable speed drive by executing said transfer module on a reference current path, characterized in that said identification sequence comprises: - generating a voltage profile comprising a variable frequency, so as to define a plurality of successive frequency operating points (ωst_i); - for each frequency operating point (ωst_i), a first measure of the current (Ip_i) and/or of the voltage (Vp_i) at the primary of the transformer and a second measure, respectively, of the current (Is_i) and/or of the voltage (Vs_i) at the secondary of the transformer; - determining the gain between the primary and the secondary of the transformer for each frequency operating point. - executing an identification sequence of the transformer for determining at least gain data (ki) representing a transfer performed by the transformer; - generating a transfer module based on said determined gain data; - determining a start-up sequence of the electric motor to be implemented by the variable speed drive by executing said transfer module on a reference current path, - generating a voltage profile comprising a variable frequency, so as to define a plurality of successive frequency operating points (ωst_i); - for each frequency operating point (ωst_i), a first measure of the current (Ip_i) and/or of the voltage (Vp_i) at the primary of the transformer and a second measure, respectively, of the current (Is_i) and/or of the voltage (Vs_i) at the secondary of the transformer; - determining the gain between the primary and the secondary of the transformer for each frequency operating point.
Filter arrangement having a housing and having an air filter, wherein the air filter has a pleated pack and a frame surrounding the pleated pack at least partially, wherein the frame features at least one recess for allowing engagement of a protrusion of the housing, characterized in that the recess is a groove-shaped recess which is designed as a cutout of an edge of the frame which is designed in such a way that the protrusion can pierce the frame in the direction towards the pleated pack, wherein the frame comprises two lateral strips attached to fold edge profiles of the pleated pack and two headbands attached to end fold sections of the pleated pack and/or to the lateral strips, wherein the recess is provided on a lateral strip in such a way that the protrusion can penetrate between two adjacent folding sections in the pleated pack.
An integrated circuit for transition fault testing, comprising: a synchronizing circuit including a first set of shift registers coupled to receive a scan enable signal and to provide a synchronizing signal based on the scan enable signal; a clock leaker circuit coupled to the synchronizing circuit and including a second set of shift registers coupled to receive a first clock signal based on the synchronizing signal and to provide a second clock signal that includes a set of pulses; and a multiplexer MUX that includes a first input coupled to receive a shift clock, a second input coupled to the clock leaker circuit to receive the second clock signal, and an output configured to provide an output clock signal that includes a second set of pulses. a synchronizing circuit including a first set of shift registers coupled to receive a scan enable signal and to provide a synchronizing signal based on the scan enable signal; a clock leaker circuit coupled to the synchronizing circuit and including a second set of shift registers coupled to receive a first clock signal based on the synchronizing signal and to provide a second clock signal that includes a set of pulses; and a multiplexer MUX that includes a first input coupled to receive a shift clock, a second input coupled to the clock leaker circuit to receive the second clock signal, and an output configured to provide an output clock signal that includes a second set of pulses.
A method for producing an ester comprising: A. reacting an oil derivative, or a modified oil with ozone and a co-solubilizing reactive alcohol in the optional presence of other alcohols or primary polyols, and in the absence of any other solvent at a temperature between -80°C to 80°C to produce intermediate products, wherein the reactive alcohol is a polyol; and B. refluxing the intermediate products or further reacting at lower than reflux temperature, wherein esters are produced from the intermediate products at double bond sites; and substantially all of the fatty acids are transesterified to esters at the fatty acid sites. A. reacting an oil derivative, or a modified oil with ozone and a co-solubilizing reactive alcohol in the optional presence of other alcohols or primary polyols, and in the absence of any other solvent at a temperature between -80°C to 80°C to produce intermediate products, wherein the reactive alcohol is a polyol; and B. refluxing the intermediate products or further reacting at lower than reflux temperature, wherein esters are produced from the intermediate products at double bond sites; and substantially all of the fatty acids are transesterified to esters at the fatty acid sites.
A method for quality evaluation of human mesenchymal stem cells, which comprises: a step where, from a cell population containing human mesenchymal stem cells, rapidly proliferating human mesenchymal stem cells are isolated, selected and cultured, wherein said step comprises: - a step where the cell population containing human mesenchymal stem cells is analyzed by flow cytometry for cells stained with anti-Ror2 monoclonal antibody to thereby effect cell sorting of Ror2 + cells; - a step where the positive cells are seeded in wells of a culture plate and the cells in each well reaching confluence upon culture are then isolated and selected; and a step where the abundance ratio of cells expressing Ror2 in the cell population thus isolated, selected and cultured is quantified to determine whether or not each cell population is acceptable. a step where, from a cell population containing human mesenchymal stem cells, rapidly proliferating human mesenchymal stem cells are isolated, selected and cultured, wherein said step comprises: - a step where the cell population containing human mesenchymal stem cells is analyzed by flow cytometry for cells stained with anti-Ror2 monoclonal antibody to thereby effect cell sorting of Ror2 + cells; - a step where the positive cells are seeded in wells of a culture plate and the cells in each well reaching confluence upon culture are then isolated and selected; and - a step where the cell population containing human mesenchymal stem cells is analyzed by flow cytometry for cells stained with anti-Ror2 monoclonal antibody to thereby effect cell sorting of Ror2 + cells; - a step where the positive cells are seeded in wells of a culture plate and the cells in each well reaching confluence upon culture are then isolated and selected; and a step where the abundance ratio of cells expressing Ror2 in the cell population thus isolated, selected and cultured is quantified to determine whether or not each cell population is acceptable.
An electric power steering device performing assist control of a steering system by calculating a first current command value (Iref1), based on at least steering torque (Th) and driving a motor, based on the first current command value (Iref1), comprising: a control rotational displacement calculation unit configured to calculate a control rotational displacement (θr) when a steering angle (θ) of the steering system is in an angular range from a maximum allowable steering angle for the steering system to a predetermined threshold steering angle, the control rotational displacement (θr) being a steering angular displacement of the steering angle (θ) with the threshold steering angle as a reference; characterized by a control steering angle shifting unit configured to calculate the control rotational displacement (θr) corrected by a correction amount based on one of the steering torque (Th) and rack axial force and a sign of one of the control rotational displacement (θr) and the steering angle (θ) as a shift control steering angle (θrs); and a feedforward control unit configured to output a second current command value (Iref2) based on the shift control steering angle (θrs) and steering velocity (ω), wherein the electric power steering device calculates a third current command value (Iref3) by adding the second current command value (Iref2) to the first current command value (Iref1) and performs the assist control, using the third current command value (Iref3). a control rotational displacement calculation unit configured to calculate a control rotational displacement (θr) when a steering angle (θ) of the steering system is in an angular range from a maximum allowable steering angle for the steering system to a predetermined threshold steering angle, the control rotational displacement (θr) being a steering angular displacement of the steering angle (θ) with the threshold steering angle as a reference; characterized by a control steering angle shifting unit configured to calculate the control rotational displacement (θr) corrected by a correction amount based on one of the steering torque (Th) and rack axial force and a sign of one of the control rotational displacement (θr) and the steering angle (θ) as a shift control steering angle (θrs); and a feedforward control unit configured to output a second current command value (Iref2) based on the shift control steering angle (θrs) and steering velocity (ω), wherein the electric power steering device calculates a third current command value (Iref3) by adding the second current command value (Iref2) to the first current command value (Iref1) and performs the assist control, using the third current command value (Iref3).
A sprung gate assembly comprising a first gate member having an opening, a second gate member having an opening and opposing the first gate member, and an endless elastic band retained between the first and second gate members (430, 432), with the openings and endless elastic band collectively defining a passage through the sprung gate assembly; characterized in that the second gate member has an exterior-facing recess, a check valve opening disposed within the exterior-facing recess, and a check valve member disposed adjacent the check valve opening so as to selectively seal the check valve opening against flow out of a chamber defined by the first and second gate members (430, 432) and the endless elastic band.
A method for predicting responsiveness to statin treatment for reducing coronary heart disease risk in a human, the method comprising testing a sample of nucleic acid from said human for the presence or absence of a single nucleotide polymorphism in the nucleotide sequence of SEQ ID NO:903, wherein said human is determined to have an increased responsiveness to statin treatment for reducing CHD risk due to the presence of C at position 101 of SEQ ID NO:903 or the presence of G at position 101 of its complement.