mhurhangee/patent-ind-claim-en huggingface dataset:
An isolator configured to isolate a payload from unwanted vibrations and shocks, the isolator comprising: a housing having a first end and a second end opposite the first end; a primary chamber defined in the housing; a backpressure chamber defined in the housing; a conduit placing the primary chamber in fluid communication with the backpressure chamber; a backpressure membrane in the housing proximate the first end, wherein the backpressure membrane comprises a resilient material, and wherein deformation of the backpressure membrane in an axial direction is to generate a restorative force in the backpressure membrane in an axial direction opposite to the direction in which the backpressure membrane was deflected and/or deformed; an elastomer dome in the housing proximate the second end, wherein the primary chamber and the backpressure chamber are between the backpressure membrane and the elastomer dome, and the elastomer dome is configured to deflect both axially and radially to provide vibration isolation in all translational directions; a shaft connected to the elastomer dome, the shaft configured to be connected to the payload, characterized in that the isolator further comprises a lateral bump stop connected to the second end of the housing, the lateral bump stop extending inward from the housing toward the shaft, being spaced apart from and extending around a portion of the shaft . a housing having a first end and a second end opposite the first end; a primary chamber defined in the housing; a backpressure chamber defined in the housing; a conduit placing the primary chamber in fluid communication with the backpressure chamber; a backpressure membrane in the housing proximate the first end, wherein the backpressure membrane comprises a resilient material, and wherein deformation of the backpressure membrane in an axial direction is to generate a restorative force in the backpressure membrane in an axial direction opposite to the direction in which the backpressure membrane was deflected and/or deformed; an elastomer dome in the housing proximate the second end, wherein the primary chamber and the backpressure chamber are between the backpressure membrane and the elastomer dome, and the elastomer dome is configured to deflect both axially and radially to provide vibration isolation in all translational directions; a shaft connected to the elastomer dome, the shaft configured to be connected to the payload, characterized in that the isolator further comprises a lateral bump stop connected to the second end of the housing, the lateral bump stop extending inward from the housing toward the shaft, being spaced apart from and extending around a portion of the shaft .
A method of wireless communication, comprising: determining, at a wireless device storing a list of discovery resources, a discovery mode from a plurality of discovery modes (DM1, DM2), wherein the determining is based on a mobility state of the wireless device , wherein the mobility state characterizes a level of mobility of the wireless device and; identifying a set of resources (R 1 -R N ) from the list of discovery resources, wherein the set of resources (R 1 -R N ) is associated with the determined discovery mode (DM1) corresponding to a first mobility state of the wireless device , wherein each of the plurality of discovery modes (DM1, DM2) is provisioned with a separate set of resources (R 1 -R N ,R 17 -R M ), and wherein each of the plurality of discovery modes (DM1, DM2) corresponds to a different discovery signal transmission periodicity such that a discovery signal is transmitted periodically in accordance with the discovery signal transmission periodicity; selecting a transmission resource from the set of resources (R 1 -R N ) corresponding to the wireless device in the first mobility state; performing contention resolution to reserve the transmission resource selected from the set of resources (R 1 -R N ) corresponding to the first mobility state of the wireless device ; and transmitting, upon successful contention resolution, the discovery signal using the transmission resource in accordance with the discovery signal transmission periodicity. determining, at a wireless device storing a list of discovery resources, a discovery mode from a plurality of discovery modes (DM1, DM2), wherein the determining is based on a mobility state of the wireless device , wherein the mobility state characterizes a level of mobility of the wireless device and; identifying a set of resources (R 1 -R N ) from the list of discovery resources, wherein the set of resources (R 1 -R N ) is associated with the determined discovery mode (DM1) corresponding to a first mobility state of the wireless device , wherein each of the plurality of discovery modes (DM1, DM2) is provisioned with a separate set of resources (R 1 -R N ,R 17 -R M ), and wherein each of the plurality of discovery modes (DM1, DM2) corresponds to a different discovery signal transmission periodicity such that a discovery signal is transmitted periodically in accordance with the discovery signal transmission periodicity; selecting a transmission resource from the set of resources (R 1 -R N ) corresponding to the wireless device in the first mobility state; performing contention resolution to reserve the transmission resource selected from the set of resources (R 1 -R N ) corresponding to the first mobility state of the wireless device ; and transmitting, upon successful contention resolution, the discovery signal using the transmission resource in accordance with the discovery signal transmission periodicity.
A display device comprising: a cover window comprising a curved portion ; and a panel member laminated on the cover window , wherein the panel member comprises at least a display panel and is smaller in a length and/or a width than the cover window so that a free end of the curved portions of the cover window surmounts the display panel , wherein the display panel comprises at least a thin film transistor (TFT), a passivation film covering the thin film transistor (TFT), and an organic light emitting diode formed on the passivation film , the organic light emitting diode comprising a pixel electrode formed on the passivation film , an organic light emitting layer formed on the pixel electrode , and a counter electrode formed on the organic light emitting layer , characterized in that a reflective film is formed in the same layer as the source and drain electrodes of the thin film transistor (TFT), the passivation film is formed of a transparent insulating material, and the counter electrode is a semi-transmissive reflective film made of Mg, Ag or Al. a cover window comprising a curved portion ; and a panel member laminated on the cover window , wherein the panel member comprises at least a display panel and is smaller in a length and/or a width than the cover window so that a free end of the curved portions of the cover window surmounts the display panel , wherein the display panel comprises at least a thin film transistor (TFT), a passivation film covering the thin film transistor (TFT), and an organic light emitting diode formed on the passivation film , the organic light emitting diode comprising a pixel electrode formed on the passivation film , an organic light emitting layer formed on the pixel electrode , and a counter electrode formed on the organic light emitting layer , characterized in that a reflective film is formed in the same layer as the source and drain electrodes of the thin film transistor (TFT), the passivation film is formed of a transparent insulating material, and the counter electrode is a semi-transmissive reflective film made of Mg, Ag or Al.
A linear porous lithium titanate material, comprising a lithium titanate material having a crystal phase which is a spinel type, wherein the lithium titanate material has a linear structure having an aspect ratio of greater than 10, and the linear lithium titanate material has a porous structure; preferably the lithium titanate material has a linear structure having an aspect ratio of 10 to 100; wherein the linear porous lithium titanate material has a structure composed of a plurality of particles having an oriented growth direction which is a <001> direction. wherein the lithium titanate material has a linear structure having an aspect ratio of greater than 10, and the linear lithium titanate material has a porous structure; preferably the lithium titanate material has a linear structure having an aspect ratio of 10 to 100; wherein the linear porous lithium titanate material has a structure composed of a plurality of particles having an oriented growth direction which is a <001> direction.
A printer, comprising: a printing portion configured to print on a print medium (M); a ribbon supply shaft configured to hold an ink ribbon (R) to be supplied to the printing portion ; a ribbon roll up shaft configured to roll up the used ink ribbon (R); and a printing unit provided swingably, the printing unit having a thermal head that constitutes the printing portion ; characterized in that the printer further comprises a partition member swingably provided in the printing unit , the partition member partitioning the ink ribbon (R) and the print medium (M), wherein the ribbon supply shaft is provided in the partition member . a printing portion configured to print on a print medium (M); a ribbon supply shaft configured to hold an ink ribbon (R) to be supplied to the printing portion ; a ribbon roll up shaft configured to roll up the used ink ribbon (R); and a printing unit provided swingably, the printing unit having a thermal head that constitutes the printing portion ; characterized in that the printer further comprises a partition member swingably provided in the printing unit , the partition member partitioning the ink ribbon (R) and the print medium (M), wherein the ribbon supply shaft is provided in the partition member .
A non-aqueous electrolyte secondary battery comprising: a positive electrode , a negative electrode , and a separator disposed between the positive electrode and the negative electrode , wherein the separator has a multilayer structure including a porous resin substrate , a first filler layer containing phosphate particles, and a second filler layer containing inorganic particles having higher melting point than the phosphate particles, the second filler layer is disposed on the porous resin substrate , the first filler layer is disposed on the porous resin substrate or the second filler layer in such a manner that a surface of the first filler layer faces a surface of the negative electrode , and the phosphate particles have a BET specific surface area in a range of 5 m 2 /g or more and 100 m 2 /g or less; wherein the phosphate particles comprise at least one selected from dilithium hydrogen phosphate, lithium dihydrogen phosphate, and lithium phosphate. wherein the separator has a multilayer structure including a porous resin substrate , a first filler layer containing phosphate particles, and a second filler layer containing inorganic particles having higher melting point than the phosphate particles, the second filler layer is disposed on the porous resin substrate , the first filler layer is disposed on the porous resin substrate or the second filler layer in such a manner that a surface of the first filler layer faces a surface of the negative electrode , and the phosphate particles have a BET specific surface area in a range of 5 m 2 /g or more and 100 m 2 /g or less; wherein the phosphate particles comprise at least one selected from dilithium hydrogen phosphate, lithium dihydrogen phosphate, and lithium phosphate.
-Thermal break reinforcement for building construction, characterised in that it is made of an austenitic or austeno-ferritic stainless steel whose composition, in % by weight, consists of: - traces ≤ C ≤ 0.08%; preferably 0.01 ≤ C ≤ 0.04%; - 1.5% ≤ Si ≤ 4.0%; preferably 2.0% ≤ Si ≤ 3.0%; - 4.0% ≤ Mn ≤ 10.0%; - traces ≤ Ni ≤ 7.0%; preferably traces < Ni ≤ 5.0%; - 16.0% ≤ Cr ≤ 23.0%; - traces ≤ Mo ≤ 2.0%; - traces ≤ W ≤ 1.0%; - traces ≤ Mo + W/2 ≤ 2.0%; - traces ≤ Co ≤ 2.0%; preferably traces < Co ≤ 0.8%; - traces ≤ Cu ≤ 3.0%; - 0,10% ≤ N ≤ 0,25%; the balance being iron, alloying elements other than those mentioned above and impurities resulting from the smelting process, the total of these other alloying elements and impurities not exceeding 1.0%, and none of these other alloying elements being individually present in a content exceeding 0.5%, and in that the thermal conductivity index IC calculated according to: IC = 22.2 + 2.11 (1 - IF/100) - 0.89 Si - 0.77 Ni - 0.44 Mn - 0.17 Cr - 0.16 Cu with IF = 6.7 Cr + 5.7 Mo + 10.7 Si - 8.6 Ni - 2.4 Mn - 0.5 Cu - 110 C - 150 N - 42.7 is ≤ 13.5, preferably ≤ 13.0, better ≤ 12.5. - traces ≤ C ≤ 0.08%; preferably 0.01 ≤ C ≤ 0.04%; - 1.5% ≤ Si ≤ 4.0%; preferably 2.0% ≤ Si ≤ 3.0%; - 4.0% ≤ Mn ≤ 10.0%; - traces ≤ Ni ≤ 7.0%; preferably traces < Ni ≤ 5.0%; - 16.0% ≤ Cr ≤ 23.0%; - traces ≤ Mo ≤ 2.0%; - traces ≤ W ≤ 1.0%; - traces ≤ Mo + W/2 ≤ 2.0%; - traces ≤ Co ≤ 2.0%; preferably traces < Co ≤ 0.8%; - traces ≤ Cu ≤ 3.0%; - 0,10% ≤ N ≤ 0,25%;
A yarn joining device comprising: a yarn joining member formed with a yarn joining space ; a clamp adapted to clamp a yarn (Y, Y1, Y2); a cutter adapted to cut the yarn (Y, Y1, Y2) clamped by the clamp ; and an untwisting pipe formed with a suction port and adapted to suck and untwist a yarn end of the yarn (Y, Y1, Y2) cut by the cutter ; the clamp , the yarn joining member , the untwisting pipe , and the cutter being disposed in this order; a guide member formed with a contacting portion adapted to bend the yarn (Y, Y1, Y2) with respect to a virtual straight line connecting the cutter and the yarn joining member by coming into contact with the yarn (Y, Y1, Y2) between the cutter and the yarn joining member is disposed between the cutter and the untwisting pipe ; characterized in that the contacting portion includes a contacting surface which is a plane to make surface contact with the yarn (Y, Y1, Y2); and a virtual extension line (L) obtained by extending the contacting surface passes outward of the suction port . a yarn joining member formed with a yarn joining space ; a clamp adapted to clamp a yarn (Y, Y1, Y2); a cutter adapted to cut the yarn (Y, Y1, Y2) clamped by the clamp ; and an untwisting pipe formed with a suction port and adapted to suck and untwist a yarn end of the yarn (Y, Y1, Y2) cut by the cutter ; the clamp , the yarn joining member , the untwisting pipe , and the cutter being disposed in this order; a guide member formed with a contacting portion adapted to bend the yarn (Y, Y1, Y2) with respect to a virtual straight line connecting the cutter and the yarn joining member by coming into contact with the yarn (Y, Y1, Y2) between the cutter and the yarn joining member is disposed between the cutter and the untwisting pipe ; characterized in that the contacting portion includes a contacting surface which is a plane to make surface contact with the yarn (Y, Y1, Y2); and a virtual extension line (L) obtained by extending the contacting surface passes outward of the suction port .
A method for transporting Ethernet frames between a first node and a second node (28, 78A-C, 96) via a third node and a fourth node , which third node and fourth node are respectively part of different Layer-2 multiple communication paths, the method comprising: defining first and second different Layer-2 multiple communication paths respectively via the third node and the fourth node ; sending, by the first node to the third node, a first Ethernet frame addressed to the second node; sending, by the first node to the fourth node, a second Ethernet frame that is identical to the first frame; transporting the first frame over the first communication path to the second node; transporting the second frame over the second communication path to the second node; receiving and using, by the second node, the first frame received via the first communication path; and discarding, the second frame received over the second communication path, wherein the first, third, and fourth nodes are part of a first network that employs ring topology. defining first and second different Layer-2 multiple communication paths respectively via the third node and the fourth node ; sending, by the first node to the third node, a first Ethernet frame addressed to the second node; sending, by the first node to the fourth node, a second Ethernet frame that is identical to the first frame; transporting the first frame over the first communication path to the second node; transporting the second frame over the second communication path to the second node; receiving and using, by the second node, the first frame received via the first communication path; and discarding, the second frame received over the second communication path, wherein the first, third, and fourth nodes are part of a first network that employs ring topology.
Inlet nozzle for a water heater with bottom water supply, the inlet nozzle comprising a deflector , a fitting and a nozzle, wherein the deflector is a hollow body with an opening at lower end, a closed dome located opposite to the opening, and at least one side wall in the cavity of which the nozzle is arranged, said nozzle consists of a nozzle tube fastened to the deflector side wall and connected with its lower end to said fitting , which fitting has a fixing element at its lower end, wherein the nozzle tube is displaced from the geometric center of the deflector opening to the side wall of the deflector , characterized in that the upper end of the nozzle tube is open toward the closed dome of the deflector .
A method for site-specific sequence modification of a target genomic DNA region in mammalian hematopoietic stem cells (HSCs) isolatable from the body of a subject comprising: transfecting the hematopoietic stem cells (HSCs) by flow electroporation using a flow electroporation device with a non-viral composition comprising (a) a single-stranded DNA oligo, wherein the DNA oligo is from about 40 to about 100 nucleic acids and the concentration of the DNA oligo in the composition is at least 100 μg/ml; (b) an RNA encoding the site-specific nuclease Cas9; and (c) a guide RNA wherein the DNA oligo comprises: (i) a homologous region comprising DNA sequence homologous to the target genomic DNA region; and (ii) a sequence modification region; and wherein the genomic DNA sequence is modified specifically at the target genomic DNA region; and wherein said stem cells are no human embryonic stem cells. transfecting the hematopoietic stem cells (HSCs) by flow electroporation using a flow electroporation device with a non-viral composition comprising (a) a single-stranded DNA oligo, wherein the DNA oligo is from about 40 to about 100 nucleic acids and the concentration of the DNA oligo in the composition is at least 100 μg/ml; (b) an RNA encoding the site-specific nuclease Cas9; and (c) a guide RNA wherein the DNA oligo comprises: (i) a homologous region comprising DNA sequence homologous to the target genomic DNA region; and (ii) a sequence modification region; and wherein the genomic DNA sequence is modified specifically at the target genomic DNA region; (i) a homologous region comprising DNA sequence homologous to the target genomic DNA region; and (ii) a sequence modification region; and wherein the genomic DNA sequence is modified specifically at the target genomic DNA region; and wherein said stem cells are no human embryonic stem cells.
A support ring for a gas turbine engine , comprising: a main body portion extending circumferentially about a center axis (A 1 ); and a radially extending portion having a plurality of openings ; characterised in that : the radially extending portion extends radially inward from the main body portion , and the support ring further comprises a plurality of anti-rotation tabs extending radially inward from the main body portion and axially spaced from the radially extending portion . a main body portion extending circumferentially about a center axis (A 1 ); and a radially extending portion having a plurality of openings ;
A method for preparing a cross-polarization cancelling optical film for an optical article comprising: providing a film having at least a first section comprising a first edge, a second section comprising a second edge, a predetermined color intensity, and a thickness; providing an apparatus, wherein the apparatus comprises at least a first roller and a second roller, wherein the first roller and the second roller are configured to stretch at least a portion of the film; and continuously and asymmetrically stretching at least a portion of the film using the apparatus, while substantially maintaining the color intensity of the film. providing a film having at least a first section comprising a first edge, a second section comprising a second edge, a predetermined color intensity, and a thickness; providing an apparatus, wherein the apparatus comprises at least a first roller and a second roller, wherein the first roller and the second roller are configured to stretch at least a portion of the film; and continuously and asymmetrically stretching at least a portion of the film using the apparatus, while substantially maintaining the color intensity of the film.
Apparatus for binning input values for an image processing pipeline into a plurality of bins which collectively represent a histogram of input values for use by one or more image processing algorithms of the image processing pipeline, each of the plurality of bins representing a corresponding range of input values, the apparatus comprising: an input for receiving an input value; a noise source configured to generate an error value according to a predetermined noise distribution; and a binning controller configured to mix the received input value with the error value so as to generate a modified input value and to allocate the modified input value to the bin corresponding to that modified input value; characterised in that the predetermined noise distribution has a variance which is within 5, 10, 15, 20, 25, 30 or 35% of the average width of the bins or the width of the largest bin and that the noise source is configured to generate an error value by selecting the error value from a pseudorandom sequence of error values which collectively represent the predetermined noise distribution. an input for receiving an input value; a noise source configured to generate an error value according to a predetermined noise distribution; and a binning controller configured to mix the received input value with the error value so as to generate a modified input value and to allocate the modified input value to the bin corresponding to that modified input value; characterised in that the predetermined noise distribution has a variance which is within 5, 10, 15, 20, 25, 30 or 35% of the average width of the bins or the width of the largest bin and that the noise source is configured to generate an error value by selecting the error value from a pseudorandom sequence of error values which collectively represent the predetermined noise distribution.