mhurhangee/patent-ind-claim-en huggingface dataset:
A rodent whose genome comprises a humanized SIRPα gene, wherein the humanized SIRPα gene is operably linked to a rodent SIRPα promoter at an endogenous rodent SIRPα locus, and expresses a humanized SIRPα protein in the rodent, and wherein the humanized SIRPα protein comprises (i) an extracellular portion that is at least 95% identical to amino acid residues 28-362 of a human SIRPα protein of SEQ. ID 4, and (ii) the intracellular portion of a rodent SIRPα protein. a humanized SIRPα gene, wherein the humanized SIRPα gene is operably linked to a rodent SIRPα promoter at an endogenous rodent SIRPα locus, and expresses a humanized SIRPα protein in the rodent, and wherein the humanized SIRPα protein comprises (i) an extracellular portion that is at least 95% identical to amino acid residues 28-362 of a human SIRPα protein of SEQ. ID 4, and (ii) the intracellular portion of a rodent SIRPα protein. (i) an extracellular portion that is at least 95% identical to amino acid residues 28-362 of a human SIRPα protein of SEQ. ID 4, and (ii) the intracellular portion of a rodent SIRPα protein.
An apparatus (100; 200) for estimating a blood pressure, the apparatus comprising: a sensor configured to obtain a photoplethysmogram, PPG, signal from an object; and a processor configured to: determine pairs of local maximum points (M1, M2, M3) and local minimum points (L1, L2, L3) of a second-order derivative signal of the PPG signal; detect a position of a dicrotic notch (DN) based on, for each pair of the pairs of the local maximum points and the local minimum points, a difference (D1, D2, D3) between a second-order derivative value at the local maximum point and a second-order derivative value at the local minimum point; obtain a first value (A1; Tdic; Pa) and a second value (A2, Tp-Tdic; Pb) from a first section and a second section of the PPG signal divided based on the dicrotic notch of the PPG signal; obtain a pulse pressure feature value based on the first value and the second value; and estimate a blood pressure based on a variation in the obtained pulse pressure feature value compared to a reference pulse pressure feature value. a sensor configured to obtain a photoplethysmogram, PPG, signal from an object; and a processor configured to: determine pairs of local maximum points (M1, M2, M3) and local minimum points (L1, L2, L3) of a second-order derivative signal of the PPG signal; detect a position of a dicrotic notch (DN) based on, for each pair of the pairs of the local maximum points and the local minimum points, a difference (D1, D2, D3) between a second-order derivative value at the local maximum point and a second-order derivative value at the local minimum point; obtain a first value (A1; Tdic; Pa) and a second value (A2, Tp-Tdic; Pb) from a first section and a second section of the PPG signal divided based on the dicrotic notch of the PPG signal; obtain a pulse pressure feature value based on the first value and the second value; and estimate a blood pressure based on a variation in the obtained pulse pressure feature value compared to a reference pulse pressure feature value. determine pairs of local maximum points (M1, M2, M3) and local minimum points (L1, L2, L3) of a second-order derivative signal of the PPG signal; detect a position of a dicrotic notch (DN) based on, for each pair of the pairs of the local maximum points and the local minimum points, a difference (D1, D2, D3) between a second-order derivative value at the local maximum point and a second-order derivative value at the local minimum point; obtain a first value (A1; Tdic; Pa) and a second value (A2, Tp-Tdic; Pb) from a first section and a second section of the PPG signal divided based on the dicrotic notch of the PPG signal; obtain a pulse pressure feature value based on the first value and the second value; and estimate a blood pressure based on a variation in the obtained pulse pressure feature value compared to a reference pulse pressure feature value.
A method of controlling a construction machine having a frame , a milling drum supported from the frame for milling a ground surface , and a plurality of ground engaging supports engaging the ground surface and supporting the frame , the method comprising the following steps: (a) rotating the milling drum ; (b) lowering the rotating milling drum into the ground surface ; (c) sensing a parameter corresponding to a reaction force acting on the milling drum ; characterized in (d) detecting a change in the sensed parameter corresponding to an increase in the reaction force; and (e) in response to detecting the change in step (d), and while continuing to rotate the milling drum, slowing a rate of lowering in step (b) and thereby preventing a lurch forward or lurch backward event. (a) rotating the milling drum ; (b) lowering the rotating milling drum into the ground surface ; (c) sensing a parameter corresponding to a reaction force acting on the milling drum ; characterized in (d) detecting a change in the sensed parameter corresponding to an increase in the reaction force; and (e) in response to detecting the change in step (d), and while continuing to rotate the milling drum, slowing a rate of lowering in step (b) and thereby preventing a lurch forward or lurch backward event.
An amniotic fluid collection device , comprising: a collection chamber ; a collection chamber inlet valve coupled to the collection chamber ; a fluid-extraction tube coupled to the collection chamber inlet valve and comprising a transfer portion and an inlet , wherein the inlet comprises a main inlet and a penetrating tip , characterized in that the inlet further comprises one or more lateral inlets , and in that the amniotic fluid collection device further comprises a ring of soft material, added to the outside of the fluid-extraction tube to facilitate the formation of a substantially impervious seal between the fluid-extraction tube and the amniotic membranes. a collection chamber ; a collection chamber inlet valve coupled to the collection chamber ; a fluid-extraction tube coupled to the collection chamber inlet valve and comprising a transfer portion and an inlet , wherein the inlet comprises a main inlet and a penetrating tip , characterized in that the inlet further comprises one or more lateral inlets , and in that the amniotic fluid collection device further comprises a ring of soft material, added to the outside of the fluid-extraction tube to facilitate the formation of a substantially impervious seal between the fluid-extraction tube and the amniotic membranes.
A catheter-based prosthetic valve configured to be crimped to a radially collapsed state on a balloon of a delivery apparatus comprising: a collapsible and expandable annular frame , configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; wherein the frame is made of a nickel-cobalt-chromium alloy and comprises a plurality of rows of angled struts , the angled struts are joined to each other so as to form a plurality of rows of hexagonal cells; characterized in that the frame is made up entirely of hexagonal cells, and wherein each of the hexagonal shaped cells is defined by six struts , including two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other. a collapsible and expandable annular frame , configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; wherein the frame is made of a nickel-cobalt-chromium alloy and comprises a plurality of rows of angled struts , the angled struts are joined to each other so as to form a plurality of rows of hexagonal cells; characterized in that the frame is made up entirely of hexagonal cells, and wherein each of the hexagonal shaped cells is defined by six struts , including two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other. two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other.
A rolling walker comprising: a frame ; a seat supported by the frame; a backrest supported by the frame via rotating strap holders secured at opposing ends of the backrest, the rotating strap holders being rotatable to enable the backrest to selectively move between a first position that provides back support for a person sitting in the seat facing in a forward direction and a second position that provides back support for a person sitting in the seat facing in a rearward direction, characterised in that the rotating strap holders are each rotatable about a substantially vertical axis to move the backrest between the first position and the second position, and in that the backrest is comprised of material that biases the backrest towards the first position when the backrest is in the first position and that biases the backrest towards the second position when the backrest is in the second position. a frame ; a seat supported by the frame; a backrest supported by the frame via rotating strap holders secured at opposing ends of the backrest, the rotating strap holders being rotatable to enable the backrest to selectively move between a first position that provides back support for a person sitting in the seat facing in a forward direction and a second position that provides back support for a person sitting in the seat facing in a rearward direction, characterised in that the rotating strap holders are each rotatable about a substantially vertical axis to move the backrest between the first position and the second position, and in that the backrest is comprised of material that biases the backrest towards the first position when the backrest is in the first position and that biases the backrest towards the second position when the backrest is in the second position.
A method for obtaining, by additive manufacturing, a construction element comprising at least one structural element and at least one insulating element , wherein a dry mortar is mixed with mixing water so as to form a basic wet mortar, said basic wet mortar is transported to a printing head , and stacked layers of mortar are successively deposited by moving said printing head so as to form said at least one structural element and said at least one insulating element , said method being such that, before depositing the layers of mortar belonging to an insulating element , an aqueous foam is additionally added to said basic wet mortar during the transport of said basic wet mortar to the printing head .
An automatic elevator calling system, comprising: a first wireless signal module (130-1, 130-2), preferably a Bluetooth low energy module, installed in an elevator car (110-1, 110-2), which is configured to broadcast a first wireless signal; and characterized by comprising a movement determination module of a personal mobile terminal (200-1, 200-2) carried by a passenger , the movement determination module configured to determine information regarding the movement of the passenger relative to the elevator landing area based on a change in a signal strength of the first wireless signal received by the personal mobile terminal (200-1, 200-2) when the signal strength of the first wireless signal received by the personal mobile terminal (200-1, 200-2) changes from greater than or equal to a relatively strong first predetermined value to zero or relatively weak; wherein the first wireless signal module (130-1, 130-2) is further configured to receive the information regarding movement of a passenger relative to the elevator landing area , and the information regarding the movement comprises the movement of the passenger from the elevator car (110-1, 110-2) into the elevator landing area . a first wireless signal module (130-1, 130-2), preferably a Bluetooth low energy module, installed in an elevator car (110-1, 110-2), which is configured to broadcast a first wireless signal; and characterized by comprising a movement determination module of a personal mobile terminal (200-1, 200-2) carried by a passenger , the movement determination module configured to determine information regarding the movement of the passenger relative to the elevator landing area based on a change in a signal strength of the first wireless signal received by the personal mobile terminal (200-1, 200-2) when the signal strength of the first wireless signal received by the personal mobile terminal (200-1, 200-2) changes from greater than or equal to a relatively strong first predetermined value to zero or relatively weak; wherein the first wireless signal module (130-1, 130-2) is further configured to receive the information regarding movement of a passenger relative to the elevator landing area , and the information regarding the movement comprises the movement of the passenger from the elevator car (110-1, 110-2) into the elevator landing area .
A curable composition which contains a (meth)acrylic acid ester polymer (A) having as constituent monomers a monomer having a reactive silicon group represented by the general formula : -SiR 1 a X 3-a (in the formula, R 1 represents a substituted or unsubstituted hydrocarbon group with 1 to 20 carbon atoms, X each independently represents a hydroxyl group or a hydrolyzable group, and a represents 0 or 1) and a polymerizable unsaturated group, and a macromonomer (a) having a polymerizable unsaturated group, in which the macromonomer (a) is a (meth)acrylic acid ester polymer, the hydrolyzable group is a hydrogen, a halogen, an alkoxy group, an alkenyloxy group, an aryloxy group, an acyloxy group, an amino group, an amide group, an aminooxy group, or a mercapto group, and Tg of a main chain constituting the polymer (A), calculated with the Fox Equation, is 0°C to 130°C, wherein the calculation is made without including the monomer having a reactive silicon group. and a polymerizable unsaturated group, and a macromonomer (a) having a polymerizable unsaturated group, in which the macromonomer (a) is a (meth)acrylic acid ester polymer, the hydrolyzable group is a hydrogen, a halogen, an alkoxy group, an alkenyloxy group, an aryloxy group, an acyloxy group, an amino group, an amide group, an aminooxy group, or a mercapto group, and Tg of a main chain constituting the polymer (A), calculated with the Fox Equation, is 0°C to 130°C, wherein the calculation is made without including the monomer having a reactive silicon group.
A power transmission device for a noncontact power supply device, the power transmission device comprising: a resonant circuit that outputs an alternating magnetic flux by power supplied from a power source circuit ; a plurality of switching elements that are switched such that the alternating magnetic flux is generated in the resonant circuit ; and a power transmission controller that controls the plurality of switching elements to transmit power to a power receiving coil of a power reception device by the alternating magnetic flux, wherein the power transmission controller includes a transmission mode for supplying alternating power to the resonant circuit by repeating ON and OFF of the plurality of switching elements , and ON time duration in one cycle of operation of each of the switching elements in the transmission mode is set as first fixed values, characterized in that the first fixed values for the switching elements are set individually to compensate component tolerances in the resonant circuit . a resonant circuit that outputs an alternating magnetic flux by power supplied from a power source circuit ; a plurality of switching elements that are switched such that the alternating magnetic flux is generated in the resonant circuit ; and a power transmission controller that controls the plurality of switching elements to transmit power to a power receiving coil of a power reception device by the alternating magnetic flux, wherein the power transmission controller includes a transmission mode for supplying alternating power to the resonant circuit by repeating ON and OFF of the plurality of switching elements , and ON time duration in one cycle of operation of each of the switching elements in the transmission mode is set as first fixed values, characterized in that the first fixed values for the switching elements are set individually to compensate component tolerances in the resonant circuit .
A method for detecting immunoglobulin light chain restriction and clonality in B cells, the method comprising: (a) conducting one or more in situ hybridization assays on a sample of B cells from a subject using at least one probe set which is designed to specifically hybridize to immunoglobulin kappa chain constant region (IGKCR) RNA; and at least one probe set which is designed to specifically hybridize to immunoglobulin lambda chain constant region (IGLCR) RNA; (b) detecting a signal associated with hybridized IGKCR probe and a signal associated with hybridized IGLCR probe; and (c) determining a pattern of the signals associated with hybridized IGKCR probe and hybridized IGLCR probe within individual cells in the B cell population, wherein the pattern, where both the signal associated with IGKCR probe and the signal associated with IGLCR probe are present in the same B cell indicates that the sample is monoclonal. (a) conducting one or more in situ hybridization assays on a sample of B cells from a subject using at least one probe set which is designed to specifically hybridize to immunoglobulin kappa chain constant region (IGKCR) RNA; and at least one probe set which is designed to specifically hybridize to immunoglobulin lambda chain constant region (IGLCR) RNA; at least one probe set which is designed to specifically hybridize to immunoglobulin kappa chain constant region (IGKCR) RNA; and at least one probe set which is designed to specifically hybridize to immunoglobulin lambda chain constant region (IGLCR) RNA; (b) detecting a signal associated with hybridized IGKCR probe and a signal associated with hybridized IGLCR probe; and (c) determining a pattern of the signals associated with hybridized IGKCR probe and hybridized IGLCR probe within individual cells in the B cell population, wherein the pattern, where both the signal associated with IGKCR probe and the signal associated with IGLCR probe are present in the same B cell indicates that the sample is monoclonal.
A method of an access point, AP, within a wireless local area network, WLAN, for responding with neighboring network information to a wireless device , the method comprising: after a discovery procedure , receiving a request for neighboring network information, the request including a Service Set Identifier, SSID, indicator, and network access identifier, NAI, wherein the request is carried within an IEEE 802.11u generic Access Service, GAS, request; generating, in response to receiving the GAS request, a corresponding request for the neighboring network information in accordance with a remote access dial-in user server, RADIUS, compatible protocol; forwarding , based on the network access identifier, NAI, of the wireless device and a network access server, NAS, Port of the AP , by the AP the corresponding request for neighboring network information to an information server ; receiving at the AP in response to the request, the neighboring network information from the information server in accordance with the RADIUS compatible protocol; and responding to the request, by the AP , by sending a response to the wireless device , the response comprising the neighboring network information, wherein the neighboring network information includes one or more network identifications of one or more wireless networks located within the vicinity of the WLAN . after a discovery procedure , receiving a request for neighboring network information, the request including a Service Set Identifier, SSID, indicator, and network access identifier, NAI, wherein the request is carried within an IEEE 802.11u generic Access Service, GAS, request; generating, in response to receiving the GAS request, a corresponding request for the neighboring network information in accordance with a remote access dial-in user server, RADIUS, compatible protocol; forwarding , based on the network access identifier, NAI, of the wireless device and a network access server, NAS, Port of the AP , by the AP the corresponding request for neighboring network information to an information server ; receiving at the AP in response to the request, the neighboring network information from the information server in accordance with the RADIUS compatible protocol; and responding to the request, by the AP , by sending a response to the wireless device , the response comprising the neighboring network information, wherein the neighboring network information includes one or more network identifications of one or more wireless networks located within the vicinity of the WLAN .
An optical switch , comprising: a plurality of micro-grooves ; a micro-fluid disposed in each micro-groove of the plurality of micro-grooves ; and a driving electrode disposed corresponding to the micro-fluid in each micro-groove , the driving electrode being configured to provide a voltage to a corresponding micro-fluid to control light transmittance of a region where the micro-fluid is located; wherein the micro-fluid includes an electrowetting micro-fluid ; the electrowetting micro-fluid includes a light-transmitting micro-fluid and a non-light-transmitting micro-fluid that is immiscible with the light-transmitting micro-fluid , and a contact angle of one of the light-transmitting micro-fluid and the non-light-transmitting micro-fluid is capable of being changed under driving of a corresponding driving electrode ; characterized in that , the non-light-transmitting micro-fluid is a conductive fluid medium and includes water and a melanin solute dissolved in water, and a weight percentage of the melanin solute in the non-light-transmitting micro-fluid ranges from 0.5 wt% to 5 wt%, inclusive, and the light-transmitting micro-fluid is a water-insoluble and non-conductive organic substance. a plurality of micro-grooves ; a micro-fluid disposed in each micro-groove of the plurality of micro-grooves ; and a driving electrode disposed corresponding to the micro-fluid in each micro-groove , the driving electrode being configured to provide a voltage to a corresponding micro-fluid to control light transmittance of a region where the micro-fluid is located; wherein the micro-fluid includes an electrowetting micro-fluid ; the electrowetting micro-fluid includes a light-transmitting micro-fluid and a non-light-transmitting micro-fluid that is immiscible with the light-transmitting micro-fluid , and a contact angle of one of the light-transmitting micro-fluid and the non-light-transmitting micro-fluid is capable of being changed under driving of a corresponding driving electrode ; characterized in that , the non-light-transmitting micro-fluid is a conductive fluid medium and includes water and a melanin solute dissolved in water, and a weight percentage of the melanin solute in the non-light-transmitting micro-fluid ranges from 0.5 wt% to 5 wt%, inclusive, and the light-transmitting micro-fluid is a water-insoluble and non-conductive organic substance.