mhurhangee/patent-ind-claim-en huggingface dataset:
A suspension for a high power micro speaker that includes an outer peripheral portion , a central portion and connection portions (220', 220"), the suspension being provided with a conductive pattern , and the outer peripheral portion and the central portion being formed in a rectangular shape, wherein the connection portions (220', 220") comprise a pair of long connection portions connecting long sides of the outer peripheral portion and the central portion and a pair of short connection portions (220") connecting short sides of the outer peripheral portion and the central portion , wherein land portions for use in soldering or welding lead-in wires of a voice coil are formed on the long connection portions , wherein the suspension further comprises a protective film for protecting the conductive pattern , which protective film is attached to the outer peripheral portion , at least a part of the central portion and at least a part of the connection portions (220', 220"), characterized in that the protective film is not attached to parts of the long connection portions disposed on the long sides, or is not attached to the long connection portions .
Thermal-expansion compensator for holding a light module in a housing of a headlamp of a vehicle , comprising: (a) a compensation insert extending along a compensation axis (A), the compensation insert comprising a stop element and the compensation insert comprising a first cavity therein, (b) a compensation holder extending along the compensation axis (A), the compensation holder having at least two stop receptacles , whereby each of the at least two stop receptacles is configured for holding the stop element of the compensation insert , whereby the stop element of the compensation insert can be held selectively in one of the at least two stop receptacles of the compensation holder to form an effective expansion length, and (c) a connection element , the connection element being connectable to the compensation insert inside of the first cavity and being connectable to the housing and/or light module of the headlamp , such that the compensation insert can expand or contract freely in the compensation holder along the compensation axis (A) with its effective expansion length, wherein the compensation holder is connected rigidly to the other one of the housing or light module , whereby the stop element extends from the compensation insert transverse, in particular perpendicular, to the compensation axis (A), characterized in that the stop element further extends around the compensation insert in a circumferential direction relative to the compensation axis (A). (a) a compensation insert extending along a compensation axis (A), the compensation insert comprising a stop element and the compensation insert comprising a first cavity therein, (b) a compensation holder extending along the compensation axis (A), the compensation holder having at least two stop receptacles , whereby each of the at least two stop receptacles is configured for holding the stop element of the compensation insert , whereby the stop element of the compensation insert can be held selectively in one of the at least two stop receptacles of the compensation holder to form an effective expansion length, and (c) a connection element , the connection element being connectable to the compensation insert inside of the first cavity and being connectable to the housing and/or light module of the headlamp , such that the compensation insert can expand or contract freely in the compensation holder along the compensation axis (A) with its effective expansion length, wherein the compensation holder is connected rigidly to the other one of the housing or light module , whereby the stop element extends from the compensation insert transverse, in particular perpendicular, to the compensation axis (A), characterized in that the stop element further extends around the compensation insert in a circumferential direction relative to the compensation axis (A).
An anchor for a prosthetic heart valve , comprising: a flexible first disc biased toward a first shape that is convex in a first direction; a neck extending from the first disc in a second direction opposite the first direction, the neck having a first end connected to the first disc and a second end; a flexible second disc connected to the second end of the neck and biased toward a second shape; and characterised in that the anchor further comprises: a cuff connected to the second disc and configured to secure the anchor to a tether . a flexible first disc biased toward a first shape that is convex in a first direction; a neck extending from the first disc in a second direction opposite the first direction, the neck having a first end connected to the first disc and a second end; a flexible second disc connected to the second end of the neck and biased toward a second shape; and characterised in that the anchor further comprises: a cuff connected to the second disc and configured to secure the anchor to a tether .
An apparatus , comprising: a camera to capture an image of a network device; a communication interface to transmit the image of the network device to a network management system, NMS, and receive information associated with the network device, wherein the information comprises connection information comprising additional network devices that are connected to the network device; a display to present an augmented reality, AR, user interface, UI, that includes a graphical overlay of the information on the image of the network device that is captured; and a processor communicatively coupled to the camera, the communication interface, and the display, the processor is adapted to receive a modification of the network device and transmit the modification to the NMS over the communication interface to cause the NMS to implement the modification in the network device; wherein the processor is further adapted to receive a modification to one of the additional network devices that are in a different location than the network device in the image that is captured, and transmit the modification to the additional network device to the NMS over the communication interface, to cause the NMS to implement the modification in the additional network device. a camera to capture an image of a network device; a communication interface to transmit the image of the network device to a network management system, NMS, and receive information associated with the network device, wherein the information comprises connection information comprising additional network devices that are connected to the network device; a display to present an augmented reality, AR, user interface, UI, that includes a graphical overlay of the information on the image of the network device that is captured; and a processor communicatively coupled to the camera, the communication interface, and the display, the processor is adapted to receive a modification of the network device and transmit the modification to the NMS over the communication interface to cause the NMS to implement the modification in the network device; wherein the processor is further adapted to receive a modification to one of the additional network devices that are in a different location than the network device in the image that is captured, and transmit the modification to the additional network device to the NMS over the communication interface, to cause the NMS to implement the modification in the additional network device.
An antibody produced in a Chinese hamster ovary (CHO) cell, wherein the antibody comprises N-acetylneuraminic acid (NANA) and lacks galactose-α-1,3-galactose, wherein the antibody comprises a light chain having the amino acid sequence: and a heavy chain having the amino acid sequence: and wherein the antibody comprises NANA at the N-glycan site Asn88 of the heavy chain amino acid sequence.
A method for a terminal for a wireless communication system, the method comprising: transmitting a message A, MsgA, for a 2-step random access procedure; characterized by in response to a transmission of only a physical random access channel, PRACH, in the MsgA, without a physical uplink shared channel, PUSCH, monitoring a physical downlink control channel, PDCCH, for a message B, MsgB, during a window; and receiving downlink control information on the PDCCH for the MsgB, wherein a starting point of the window for monitoring the PDCCH depends on whether the PRACH is associated with a valid PUSCH occasion. transmitting a message A, MsgA, for a 2-step random access procedure; characterized by in response to a transmission of only a physical random access channel, PRACH, in the MsgA, without a physical uplink shared channel, PUSCH, monitoring a physical downlink control channel, PDCCH, for a message B, MsgB, during a window; and receiving downlink control information on the PDCCH for the MsgB, wherein a starting point of the window for monitoring the PDCCH depends on whether the PRACH is associated with a valid PUSCH occasion.
L-glutamine or an L-glutamine salt for use in a method of treating diverticulosis, wherein the L-glutamine or L-glutamine salt is ingested at a dose of 0.05 g/kg body weight to 10.0 g/kg body weight per day by a person who has diverticulosis.
A paste for marking wound dressings, characterized in that the paste includes minerals comprising barite (BaSO 4 ) and halloysite in a ratio of four parts by volume of barite to one part by volume of halloysite; and the primary particle size of barite and/or halloysite is < 5 μm. the paste includes minerals comprising barite (BaSO 4 ) and halloysite in a ratio of four parts by volume of barite to one part by volume of halloysite; and the primary particle size of barite and/or halloysite is < 5 μm.
A gasket (112; 212; 312; 412) for an engine comprising a gasket opening (123; 223) and being structured with a control gap (120; 220; 320; 420) or being structured to form a control gap (120; 220; 320; 420) when in situ between a cylinder head (110; 310) and cylinder block (116; 316), said gasket opening (123; 223) being sized and arranged to provide a fluid pathway between a bore opening in a cylinder block (116; 316) and a bore opening in a cylinder head (110; 310) and said control gap (120; 220; 320; 420) being configured and arranged to selectively restrict that fluid pathway such that gas may freely pass through the opening (123; 223) in the gasket whereas coolant can only restrictively pass through the opening (123; 223) in the gasket, wherein: the control gap (120; 220; 320; 420) in the gasket opening (123; 223) comprises an upper wall (103; 203; 303), a lower wall (105; 205; 305; 405) and side walls (106; 206), the height of the control gap being defined by the distance between the upper wall (103; 203; 303) and the lower wall and wherein the height of the control gap is dimensioned such that the viscous drag of coolant passing between the upper and lower walls is significant enough to prevent or at least minimise the flow of coolant out of the gasket opening (123; 223) and into the opening in the cylinder head (110; 310).
A method of performing a white blood cell (WBC) analysis with an automated hematology analyzer, the method comprising: (a) diluting a sample of whole blood with a WBC reagent having an osmolality of from 20 to 250 mOsm, wherein the WBC reagent includes a red blood cells (RBC) lysing agent and acridine orange as a fluorescent dye that penetrates WBC membranes and binds to WBC nucleic acids; (b) incubating the diluted blood sample of step (a) for an incubation period of less than 25 seconds and at a temperature ranging from 30°C to 50°C; (c) delivering the incubated sample from step (b) to a flow cell in the hematology analyzer; (d) exciting the incubated sample from step (c) with an excitation source as the incubated sample traverses the flow cell; (e) collecting a plurality of light scatter signals and a fluorescence emission signal from the excited sample; (f) prior to performing a WBC analysis, excluding nuclei-free particles and retaining nuclei-containing particles using only a fluorescence trigger that is limited to fluorescence emission signals and is set to a fluorescence magnitude that is greater than fluorescence emission signals from RBCs, including RBC fragments, and is less than fluorescence emission signals from WBCs; and (g) performing a WBC differential on the nuclei-containing particles retained in step (f). (a) diluting a sample of whole blood with a WBC reagent having an osmolality of from 20 to 250 mOsm, wherein the WBC reagent includes a red blood cells (RBC) lysing agent and acridine orange as a fluorescent dye that penetrates WBC membranes and binds to WBC nucleic acids; (b) incubating the diluted blood sample of step (a) for an incubation period of less than 25 seconds and at a temperature ranging from 30°C to 50°C; (c) delivering the incubated sample from step (b) to a flow cell in the hematology analyzer; (d) exciting the incubated sample from step (c) with an excitation source as the incubated sample traverses the flow cell; (e) collecting a plurality of light scatter signals and a fluorescence emission signal from the excited sample; (f) prior to performing a WBC analysis, excluding nuclei-free particles and retaining nuclei-containing particles using only a fluorescence trigger that is limited to fluorescence emission signals and is set to a fluorescence magnitude that is greater than fluorescence emission signals from RBCs, including RBC fragments, and is less than fluorescence emission signals from WBCs; and (g) performing a WBC differential on the nuclei-containing particles retained in step (f).
A process for manufacturing a hydrophobized fiber cement product comprising a series of fiber cement films that are superimposed on each other, further comprising a layer of a hydrophobizing agent, said process at least comprising the steps of: (i) forming at least one fiber cement film on a rotating sieve in contact with a fiber cement slurry in a vat ; (ii) transferring said at least one fiber cement film from said sieve to a felt transport belt , (iii) applying a hydrophobizing agent to said at least one fiber cement film, and (iv) accumulating the fiber cement film on an accumulator roll via the felt transport belt , so as to form a hydrophobized fiber cement product, characterized in that : - the hydrophobizing agent is applied in an amount of 0.1 mg/cm 2 to 2 mg/cm 2 as a mist in which micro-droplets of the hydrophobizing agent are suspended in air; - said mist of hydrophobizing agent is applied to at least two fiber cement films of the fiber cement product, so as to provide a fiber cement sheet with two or more intercalating layers of hydrophobizing agent, which are incorporated in between the different fiber cement films. (i) forming at least one fiber cement film on a rotating sieve in contact with a fiber cement slurry in a vat ; (ii) transferring said at least one fiber cement film from said sieve to a felt transport belt , (iii) applying a hydrophobizing agent to said at least one fiber cement film, and (iv) accumulating the fiber cement film on an accumulator roll via the felt transport belt , so as to form a hydrophobized fiber cement product, - the hydrophobizing agent is applied in an amount of 0.1 mg/cm 2 to 2 mg/cm 2 as a mist in which micro-droplets of the hydrophobizing agent are suspended in air; - said mist of hydrophobizing agent is applied to at least two fiber cement films of the fiber cement product, so as to provide a fiber cement sheet with two or more intercalating layers of hydrophobizing agent, which are incorporated in between the different fiber cement films.
A method for selective catalytic reduction of NOx comprising: providing an exhaust stream from a combustion operation , the exhaust stream containing an amount of NOx (step 110); introducing at least a portion of the exhaust stream and a reductant stream including ammonia to a catalytic reactor comprising a zeolite catalyst loaded with at least two metals selected from the group consisting of tungsten, cobalt, and vanadium, wherein a weight loading of cobalt or vanadium is 6 wt. % and a weight loading of tungsten is 4 wt. %, the reductant stream and the at least a portion of the exhaust stream being introduced to the catalytic reactor at suitable operating conditions to reduce the amount of NOx in the exhaust stream (step 120, 130); and directing the NOx-reduced exhaust stream from the catalytic reactor (step 140). providing an exhaust stream from a combustion operation , the exhaust stream containing an amount of NOx (step 110); introducing at least a portion of the exhaust stream and a reductant stream including ammonia to a catalytic reactor comprising a zeolite catalyst loaded with at least two metals selected from the group consisting of tungsten, cobalt, and vanadium, wherein a weight loading of cobalt or vanadium is 6 wt. % and a weight loading of tungsten is 4 wt. %, the reductant stream and the at least a portion of the exhaust stream being introduced to the catalytic reactor at suitable operating conditions to reduce the amount of NOx in the exhaust stream (step 120, 130); and directing the NOx-reduced exhaust stream from the catalytic reactor (step 140).
A method in a first wireless station of a wireless network, the method comprising: generating a check sequence to protect the integrity of a subpacket of a packet, wherein the check sequence is generated such that a second wireless station wirelessly receiving a signal corresponding to the packet can sequentially verify the integrity of the subpacket as if the check sequence were appended at the end of the subpacket being protected and wherein the generating comprises: computing an appended check sequence of the subpacket ; and multiplying the appended check sequence by a re-positioning matrix to determine the check sequence, or performing an operation equivalent to the multiplying; embedding the check sequence in an embedding field within the subpacket, wherein the embedding field is located prior to the end of the subpacket; and wirelessly transmitting the packet. generating a check sequence to protect the integrity of a subpacket of a packet, wherein the check sequence is generated such that a second wireless station wirelessly receiving a signal corresponding to the packet can sequentially verify the integrity of the subpacket as if the check sequence were appended at the end of the subpacket being protected and wherein the generating comprises: computing an appended check sequence of the subpacket ; and multiplying the appended check sequence by a re-positioning matrix to determine the check sequence, or performing an operation equivalent to the multiplying; computing an appended check sequence of the subpacket ; and multiplying the appended check sequence by a re-positioning matrix to determine the check sequence, or performing an operation equivalent to the multiplying; embedding the check sequence in an embedding field within the subpacket, wherein the embedding field is located prior to the end of the subpacket; and wirelessly transmitting the packet.
An irradiation angle adjustment method of a lamp, the lamp comprising a plurality of infrared receivers and a driving motor , the method comprising: receiving an infrared signal from a remote controller via the plurality of infrared receivers ; determining an irradiation angle adjustment value of the lamp based on a plurality of infrared signal intensity values of the plurality of infrared receivers ; and adjusting an irradiation angle of the lamp via the driving motor based on the irradiation angle adjustment value, wherein the plurality of infrared receivers comprises three infrared receivers , the three infrared receivers are mounted on an extension of a plane where the lamp is located, and coordinates of the three infrared receivers are normalized to be , (-0.5, -0.5) and (0.5, -0.5) in an X-Y rectangular coordinate that is established with the lamp as an origin, characterized in that the irradiation angle adjustment value comprises an X-axis adjustment value and a Y-axis adjustment value, and determining the irradiation angle adjustment value of the lamp based on the plurality of infrared signal intensity values of the plurality of infrared receivers comprises: performing a proportional superposition algorithm based on the infrared signal intensity values respectively received by the three infrared receivers to determine the X-axis adjustment value and the Y-axis adjustment value. receiving an infrared signal from a remote controller via the plurality of infrared receivers ; determining an irradiation angle adjustment value of the lamp based on a plurality of infrared signal intensity values of the plurality of infrared receivers ; and adjusting an irradiation angle of the lamp via the driving motor based on the irradiation angle adjustment value, wherein the plurality of infrared receivers comprises three infrared receivers , the three infrared receivers are mounted on an extension of a plane where the lamp is located, and coordinates of the three infrared receivers are normalized to be , (-0.5, -0.5) and (0.5, -0.5) in an X-Y rectangular coordinate that is established with the lamp as an origin, characterized in that the irradiation angle adjustment value comprises an X-axis adjustment value and a Y-axis adjustment value, and determining the irradiation angle adjustment value of the lamp based on the plurality of infrared signal intensity values of the plurality of infrared receivers comprises: performing a proportional superposition algorithm based on the infrared signal intensity values respectively received by the three infrared receivers to determine the X-axis adjustment value and the Y-axis adjustment value.
A compressor blade configured to inhibit rub encounters between a blade tip thereof and an interior surface of a case that surrounds compressor rotating hardware that comprises the blade , the blade comprising: a cap that defines the blade tip at a radially outermost end of the blade ; a plurality of flexible elements extending from a surface of the cap that defines the blade tip , the flexible elements extending from the surface in a span-wise direction of the blade , the flexible elements being operable to become rigid due to centrifugal stiffening at compressor operating speeds, characterized in that the flexible elements comprise flexible cutting elements operable to cut a groove in the interior surface of the case at compressor operating speeds. a cap that defines the blade tip at a radially outermost end of the blade ; a plurality of flexible elements extending from a surface of the cap that defines the blade tip , the flexible elements extending from the surface in a span-wise direction of the blade , the flexible elements being operable to become rigid due to centrifugal stiffening at compressor operating speeds, characterized in that the flexible elements comprise flexible cutting elements operable to cut a groove in the interior surface of the case at compressor operating speeds.