mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless device for managing reachability of the wireless device , wherein the wireless device is in ECM_CONNECTED state and has an ECM connection between a network node of a RAN, Radio Access Network, and a core node associated with the RAN, the method comprising: - entering from the ECM_Connected state into an inactive state in which a RRC connection between the wireless device and the network node of the RAN is suspended while the ECM connection is kept and starting an AS, Access Stratum, reachable timer when entering the inactive state, - sending to the network node a reachable notification indicating that the wireless device is reachable when detecting in the inactive state that the AS reachable timer expires, and after sending said reachable notification to the network node , - restarting the AS reachable timer in response to receiving a reachable notification acknowledgement from the network node , in response to detecting that the RAN is not reachable, starting an AS detach timer, and, when detecting that the AS detach timer expires, changing from the inactive state to ECM_IDLE state and, - stopping the AS reachable timer in response to a change from the inactive state to a connected state before the AS reachable timer expires. - entering from the ECM_Connected state into an inactive state in which a RRC connection between the wireless device and the network node of the RAN is suspended while the ECM connection is kept and starting an AS, Access Stratum, reachable timer when entering the inactive state, - sending to the network node a reachable notification indicating that the wireless device is reachable when detecting in the inactive state that the AS reachable timer expires, and after sending said reachable notification to the network node , - restarting the AS reachable timer in response to receiving a reachable notification acknowledgement from the network node , in response to detecting that the RAN is not reachable, starting an AS detach timer, and, when detecting that the AS detach timer expires, changing from the inactive state to ECM_IDLE state and, - stopping the AS reachable timer in response to a change from the inactive state to a connected state before the AS reachable timer expires.
A system for assembling building panels, comprising a plurality of building panels provided with respective first and second edges and one or more coupling elements , the coupling element comprising: a primary coupling portion extending along a primary axis (Z1, Z1') and being configured to obtain an engaged state with the first edge of said first building panel for locking the coupling element from displacement along a secondary axis (X1, X1') and a tertiary axis (Y1) being orthogonal the primary axis (Z1), said first edge of said first building panel extending parallel to said primary (Z1, Z1') axis, characterised in that the coupling element comprises a secondary coupling portion extending along the tertiary axis (Y1) and being configured to engage with the second edge of said second building panel , said second edge of said second building panel extending parallel to said secondary (X1, X1') axis, wherein a second edge of the first panel comprises a locking tongue and the first edge of the first panel comprises a complementary tongue groove for receiving a locking tongue corresponding to said locking tongue of said second edge , and wherein said primary coupling portion comprises a locking tongue corresponding to said locking tongue of the second edge of the first panel . a primary coupling portion extending along a primary axis (Z1, Z1') and being configured to obtain an engaged state with the first edge of said first building panel for locking the coupling element from displacement along a secondary axis (X1, X1') and a tertiary axis (Y1) being orthogonal the primary axis (Z1), said first edge of said first building panel extending parallel to said primary (Z1, Z1') axis, characterised in that the coupling element comprises a secondary coupling portion extending along the tertiary axis (Y1) and being configured to engage with the second edge of said second building panel , said second edge of said second building panel extending parallel to said secondary (X1, X1') axis, wherein a second edge of the first panel comprises a locking tongue and the first edge of the first panel comprises a complementary tongue groove for receiving a locking tongue corresponding to said locking tongue of said second edge , and wherein said primary coupling portion comprises a locking tongue corresponding to said locking tongue of the second edge of the first panel .
A displacement controlling device , comprising: a shaft having a displacement region; a movable unit connected to the shaft and configured to move within the displacement region; a damper connected to one end of the shaft ; and a restraint unit arranged between the movable unit and the damper , wherein the restraint unit is configured to be driven by the movable unit from a first position (P1) toward a second position (P2); wherein the damper outputs a resistance when the restraint unit is at the first position (P1); and wherein the damper stops outputting the resistance if the restraint unit is at the second position (P2); the displacement controlling device is characterized in that : the movable unit is adapted to be moved toward or away from the damper within the displacement region; while the movable unit is being moved toward the damper , the restraint unit is being moved from the first position (P1) to the second position (P2). a shaft having a displacement region; a movable unit connected to the shaft and configured to move within the displacement region; a damper connected to one end of the shaft ; and a restraint unit arranged between the movable unit and the damper , wherein the restraint unit is configured to be driven by the movable unit from a first position (P1) toward a second position (P2); wherein the damper outputs a resistance when the restraint unit is at the first position (P1); and wherein the damper stops outputting the resistance if the restraint unit is at the second position (P2); the displacement controlling device is characterized in that : the movable unit is adapted to be moved toward or away from the damper within the displacement region; while the movable unit is being moved toward the damper , the restraint unit is being moved from the first position (P1) to the second position (P2).
A portable cardiac massage apparatus , comprising a C-shaped frame including a base for positioning under the back of a supine patient, an upper arm and an upright body which interconnects the base and the upper arm , a plunger for applying pressure to the sternum of a patient lying on the base , which plunger is coupled to the upper arm and movable with respect to the upper arm in a direction from the upper arm to the base and back and a lever for operating the plunger which lever is pivotally coupled to the plunger through a first hinge and the lever is pivotally coupled to a link rod through a second hinge located at a distance from the first hinge , wherein the link rod is pivotally coupled to the upper arm through a third hinge located at a distance from the second hinge , characterized in that the lever is also pivotally connected to an auxiliary rod through a fourth hinge located at a distance from the first and second hinges , wherein the auxiliary rod is pivotally connected to the upright body through a fifth hinge that is displaceable along the upright body through a guide at the upright body in a direction from the upper arm to the base and back, wherein the first hinge is located between the second and fourth hinges and beyond the fourth hinge as seen in a direction from the upright body to the plunger .
A photo-thermal interferometer for measuring the light absorption of an aerosol or gas , comprising a first laser source emitting a laser beam , a beam splitter adapted to divide the laser beam into a probe beam and a reference beam , at least one first optical element which is adapted to direct the probe beam such that it passes through the aerosol or gas and interferes with the reference beam thereafter thereby causing interference patterns, a detector for detecting the interference patterns, a second laser source configured to emit a pump beam for transferring energy to the aerosol or gas and second optical elements adapted to direct the pump beam such that it overlaps with the probe beam at least partially in the aerosol or gas , characterized in that at least one of the second optical elements modifying the pump beam is an axicon .
A method of monitoring at least one optical wavelength component of a WDM optical signal being routed through a wavelength selective switch WSS , including a spatial light modulator SLM, comprising: selecting a first phase pattern to be produced by the SLM from among a first plurality of phase patterns that (i) directs a first optical wavelength component from a first input port of the WSS to a selected output port and (ii) causes the first wavelength component to undergo a first selected amount of attenuation, the first phase pattern being further selected to cause a first rejected portion of the first optical wavelength component giving rise to the first selected amount of attenuation to be directed to an optical monitor associated with another output port of the WSS ; periodically programming a first portion of the SLM with the first phase pattern; and directing the first optical wavelength component to the first portion of the SLM while the first portion of the SLM is periodically configured with the first phase pattern. selecting a first phase pattern to be produced by the SLM from among a first plurality of phase patterns that (i) directs a first optical wavelength component from a first input port of the WSS to a selected output port and (ii) causes the first wavelength component to undergo a first selected amount of attenuation, (i) directs a first optical wavelength component from a first input port of the WSS to a selected output port and (ii) causes the first wavelength component to undergo a first selected amount of attenuation, the first phase pattern being further selected to cause a first rejected portion of the first optical wavelength component giving rise to the first selected amount of attenuation to be directed to an optical monitor associated with another output port of the WSS ; periodically programming a first portion of the SLM with the first phase pattern; and directing the first optical wavelength component to the first portion of the SLM while the first portion of the SLM is periodically configured with the first phase pattern.
An IL-11Rα-binding protein comprising an antigen binding domain of an antibody, wherein the antigen binding domain binds to IL-11Rα and inhibits IL-11-mediated proliferation of BaF3 cells expressing IL-11Rα and gp130, and wherein: (i) the antigen binding domain binds to an epitope comprising residues between amino acids 111-215 of SEQ ID NO: 1; (ii) the antigen binding domain comprises a V H comprising the sequence: wherein: X 1 = S, A, G or W; X 2 = W or R; X 3 = Y, W or F; X 4 = M, I, V, T or L; X 5 = T or A; X 6 = S, W, Y, or H; X 7 = G or A; X 8 = G, D or T; X 9 = H, Y, L, I or F; X 10 = G or P; X 11 = P, E, V, L, N or H; X 12 = G or D; X 13 = S, M, R, L, Q or T; X 14 = D, A or W; and X 15 = L, V, F, Q, E, Y or T; (iii) the antigen binding domain comprises a V L comprising the sequence: wherein X 1 = I or V; X 2 = N, D, G, S, A or H; X 3 = N, Y, I, K, M, Q, G or H; X 4 = Y or W; X 5 = L, V, I, or M; X 6 = N or E; X 7 = Q, E, S, or T; X 8 = Y, A, H, F, N, S, or W; X 9 = D or E; X 10 = N, D, F, S, E or T; X 11 = L or Q; X 12 = S, A, W, T, M or Q; and X 13 = T, E, F, A, L, N, or Q; and (iv) the antigen binding domain comprises a V H sequence at least about 95%, or 96%, or 97% or 98% or 99% identical to a sequence set forth in SEQ ID NO: 37 and the antigen binding domain comprises a V L sequence at least about 94% or 95%, or 96%, or 97%, or 98%, or 99% identical to a sequence set forth in SEQ ID NO: 5. (i) the antigen binding domain binds to an epitope comprising residues between amino acids 111-215 of SEQ ID NO: 1; (ii) the antigen binding domain comprises a V H comprising the sequence: wherein: X 1 = S, A, G or W; X 2 = W or R; X 3 = Y, W or F; X 4 = M, I, V, T or L; X 5 = T or A; X 6 = S, W, Y, or H; X 7 = G or A; X 8 = G, D or T; X 9 = H, Y, L, I or F; X 10 = G or P; X 11 = P, E, V, L, N or H; X 12 = G or D; X 13 = S, M, R, L, Q or T; X 14 = D, A or W; and X 15 = L, V, F, Q, E, Y or T; (iii) the antigen binding domain comprises a V L comprising the sequence: wherein X 1 = I or V; X 2 = N, D, G, S, A or H; X 3 = N, Y, I, K, M, Q, G or H; X 4 = Y or W; X 5 = L, V, I, or M; X 6 = N or E; X 7 = Q, E, S, or T; X 8 = Y, A, H, F, N, S, or W; X 9 = D or E; X 10 = N, D, F, S, E or T; X 11 = L or Q; X 12 = S, A, W, T, M or Q; and X 13 = T, E, F, A, L, N, or Q; and (iv) the antigen binding domain comprises a V H sequence at least about 95%, or 96%, or 97% or 98% or 99% identical to a sequence set forth in SEQ ID NO: 37 and the antigen binding domain comprises a V L sequence at least about 94% or 95%, or 96%, or 97%, or 98%, or 99% identical to a sequence set forth in SEQ ID NO: 5.
A machine for recycling quilts, comprising: - an infeed station (1 10) configured to receive as input a quilt comprising a plurality of layers joined by a stitching in which quilt a padding is interposed between an upper layer and a lower layer , - a heating station , comprising heating means acting on a heating space (V) designed to contain a portion of the quilt , the heating means being configured to increase the temperature of the stitching to a change of state or softening temperature of at least one heat-sensitive sewing thread of the stitching ; characterized by - a pair of drive rollers , facing each other in a counter-rotating fashion and configured to move said quilt through the heating station , at least one of the drive rollers being motor-driven, - supporting means adapted to convey the quilt coming from the infeed station into said heating space (V), said supporting means comprising opposite walls facing and converging towards the heating space (V), - also comprising a separating station downstream of the heating station , the separating station comprising traction means , acting on the plurality of layers for moving the layers in respective diverging directions and separating them from each other, after the stitching has been heated in the heating station , said traction means comprising two pairs of motor-driven rollers acting respectively on the upper and lower layers and another pair of rollers acting on the padding . - an infeed station (1 10) configured to receive as input a quilt comprising a plurality of layers joined by a stitching in which quilt a padding is interposed between an upper layer and a lower layer , - a heating station , comprising heating means acting on a heating space (V) designed to contain a portion of the quilt , the heating means being configured to increase the temperature of the stitching to a change of state or softening temperature of at least one heat-sensitive sewing thread of the stitching ; characterized by - a pair of drive rollers , facing each other in a counter-rotating fashion and configured to move said quilt through the heating station , at least one of the drive rollers being motor-driven, - supporting means adapted to convey the quilt coming from the infeed station into said heating space (V), said supporting means comprising opposite walls facing and converging towards the heating space (V), - also comprising a separating station downstream of the heating station , the separating station comprising traction means , acting on the plurality of layers for moving the layers in respective diverging directions and separating them from each other, after the stitching has been heated in the heating station , said traction means comprising two pairs of motor-driven rollers acting respectively on the upper and lower layers and another pair of rollers acting on the padding .
A foamable composition, comprising: a cellulose acetate having a degree of substitution of acetyl (DS Ac ) between 2.2 to 2.6; 5 to 40 wt% of a plasticizer; 0.1 to 3 wt% of a nucleating agent; and 0.1 to 3 wt% a chemical blowing composition, that comprises: (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer, wherein the blowing agent comprises sodium bicarbonate, citric acid or combinations thereof, and wherein the carrier polymer consists of polybutylene succinate, a polycaprolactone, or combinations thereof, and wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition, wherein the proportions of the cellulose acetate, plasticizer, nucleating agent and chemical blowing composition are based on the total weight of the foamable composition. a cellulose acetate having a degree of substitution of acetyl (DS Ac ) between 2.2 to 2.6; 5 to 40 wt% of a plasticizer; 0.1 to 3 wt% of a nucleating agent; and 0.1 to 3 wt% a chemical blowing composition, that comprises: (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer, wherein the blowing agent comprises sodium bicarbonate, citric acid or combinations thereof, and wherein the carrier polymer consists of polybutylene succinate, a polycaprolactone, or combinations thereof, and wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition, (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer, wherein the blowing agent comprises sodium bicarbonate, citric acid or combinations thereof, and wherein the carrier polymer consists of polybutylene succinate, a polycaprolactone, or combinations thereof, and wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition,
A light barrier system comprising at least two reflection light barrier devices , which each configured to emit a light beam and to detect a reflected light beam , characterized in that the light barrier system comprises a reflection body , which is configured to reflect back in parallel light beams emitted from at least two different directions (Ri), which are spaced apart at an angle of at least 20°, wherein the at least two reflection light barrier devices are arranged in such a way that they emit light beams from different directions (Ri) onto the same reflection body in order to monitor at least two spatially different areas .
An image decoding device comprising: an intra prediction unit for, when a coding mode for a coding block is an intra coding mode, carrying out an intra-frame prediction process on each of processing blocks to generate a prediction value for each of pixels of a prediction image, each of the processing blocks being the coding block or a sub-block obtained by dividing the coding block, wherein, when an intra prediction parameter indicates a horizontal prediction process, the intra prediction unit adds, at each row within a predetermined number of a row or rows from an upper end of the processing block, a value to a luminance value of a pixel adjacent to left of the processing block and sets a result of the addition as a predicted value of the prediction image, the value being proportional to an amount of change in a horizontal direction of luminance values of pixels adjacent to top of the processing block and being obtained by scaling the amount of change, and the intra prediction unit sets, at remaining rows of the processing block, a luminance value of a pixel adjacent to left of the processing block as a predicted value of the prediction image, wherein the intra prediction unit calculates a predicted value of each pixel in the processing block according to S ′ x y = { S − 1 , y + S x , − 1 − S − 1 , − 1 / u y < C S − 1 , y y ≧ C wherein S'(x, y) is the predicted value at the coordinates (x, y), S(x, y) is the luminance value of the already-encoded pixel at the coordinates (x, y), 1/u is a scaling value used for horizontal prediction and C is an integer larger than 0. an intra prediction unit for, when a coding mode for a coding block is an intra coding mode, carrying out an intra-frame prediction process on each of processing blocks to generate a prediction value for each of pixels of a prediction image, each of the processing blocks being the coding block or a sub-block obtained by dividing the coding block, wherein, when an intra prediction parameter indicates a horizontal prediction process, the intra prediction unit adds, at each row within a predetermined number of a row or rows from an upper end of the processing block, a value to a luminance value of a pixel adjacent to left of the processing block and sets a result of the addition as a predicted value of the prediction image, the value being proportional to an amount of change in a horizontal direction of luminance values of pixels adjacent to top of the processing block and being obtained by scaling the amount of change, and the intra prediction unit sets, at remaining rows of the processing block, a luminance value of a pixel adjacent to left of the processing block as a predicted value of the prediction image, wherein the intra prediction unit calculates a predicted value of each pixel in the processing block according to S ′ x y = { S − 1 , y + S x , − 1 − S − 1 , − 1 / u y < C S − 1 , y y ≧ C wherein S'(x, y) is the predicted value at the coordinates (x, y), S(x, y) is the luminance value of the already-encoded pixel at the coordinates (x, y), 1/u is a scaling value used for horizontal prediction and C is an integer larger than 0.
A box forming machine , comprising: a drive line having a longitudinal direction and a drive mechanism that transports a blank forward longitudinally on the drive line ; one or more fingers disposed next to the drive line , the one or more fingers configured to move up and down to bend side panels (A', B', C', D') of the blank up and down in an alternating fashion; and one or more holders positioned forward from the one or more fingers , the one or more holders positioned so that the side panels (A', B', C', D') of the blank are held in position by the one or more holders as the blank moves forward on the drive line . a drive line having a longitudinal direction and a drive mechanism that transports a blank forward longitudinally on the drive line ; one or more fingers disposed next to the drive line , the one or more fingers configured to move up and down to bend side panels (A', B', C', D') of the blank up and down in an alternating fashion; and one or more holders positioned forward from the one or more fingers , the one or more holders positioned so that the side panels (A', B', C', D') of the blank are held in position by the one or more holders as the blank moves forward on the drive line .