mhurhangee/ep-ind-claims huggingface dataset:
An amine-terminated polyformal adduct selected from an adduct of Formula, an adduct of Formula, and a combination thereof: wherein: each t is independently an integer selected from 1 to 50; each u is independently selected from 1 and 2; each R 3 is independently C 2-6 alkanediyl; each R 4 is independently selected from hydrogen, C 1-6 alkyl, C 7-12 phenylalkyl, substituted C 7-12 phenylalkyl, C 6-12 cycloalkylalkyl, substituted C 6-12 cycloalkylalkyl, C 3-12 cycloalkyl, substituted C 3-12 cycloalkyl, C 6-12 aryl, and substituted C 6-12 aryl; B represents the core of a z-valent polyol B z, wherein z is an integer from 3 to 6; and each R 5 is independently a group comprising F, wherein F is an amine-terminated group of Formula: A-Y-(CR 2 2) p -[-O-(CR 1 2) n -] m -O-(CR 2 2) p -Y-A'- wherein: m is an integer from 0 to 4; each n is independently an integer from 1 to 4; each p is independently an integer from 1 to 4; A is amino-substituted phenyl; -A'- is each Y is independently selected from O and S; each R 1 is independently selected from hydrogen and C 1-3 alkyl; and each R 2 is independently selected from hydrogen and C 1-3 alkyl. each t is independently an integer selected from 1 to 50; each u is independently selected from 1 and 2; each R 3 is independently C 2-6 alkanediyl; each R 4 is independently selected from hydrogen, C 1-6 alkyl, C 7-12 phenylalkyl, substituted C 7-12 phenylalkyl, C 6-12 cycloalkylalkyl, substituted C 6-12 cycloalkylalkyl, C 3-12 cycloalkyl, substituted C 3-12 cycloalkyl, C 6-12 aryl, and substituted C 6-12 aryl; B represents the core of a z-valent polyol B z, wherein z is an integer from 3 to 6; and each R 5 is independently a group comprising F, wherein F is an amine-terminated group of Formula: A-Y-(CR 2 2) p -[-O-(CR 1 2) n -] m -O-(CR 2 2) p -Y-A'- wherein: m is an integer from 0 to 4; each n is independently an integer from 1 to 4; each p is independently an integer from 1 to 4; A is amino-substituted phenyl; -A'- is each Y is independently selected from O and S; each R 1 is independently selected from hydrogen and C 1-3 alkyl; and each R 2 is independently selected from hydrogen and C 1-3 alkyl. m is an integer from 0 to 4; each n is independently an integer from 1 to 4; each p is independently an integer from 1 to 4; A is amino-substituted phenyl; -A'- is each Y is independently selected from O and S; each R 1 is independently selected from hydrogen and C 1-3 alkyl; and each R 2 is independently selected from hydrogen and C 1-3 alkyl.
A home appliance comprising: a communication unit for transmitting and receiving data; a tag unit for performing Near Field Communication, NFC, with a terminal; and a controller configured to (i) store product information at the tag unit, (ii) receive data stored at the tag unit, (iii) change an operation setting, and (iv) control a operation state, wherein the controller is configured to determine network connection information that is stored at the tag unit, to set the network connection information in the communication unit, and to transmit and receive data through a predetermined network through the communication unit, characterized in that the controller is configured to transmit, in case a network connection through the communication unit is successful, data of the home appliance to the server based on a product information of the home appliance, wherein after the home appliance is registered to the server by the terminal, the operation of the home appliance is controlled based on data received from the terminal. a communication unit for transmitting and receiving data; a tag unit for performing Near Field Communication, NFC, with a terminal; and a controller configured to (i) store product information at the tag unit, (ii) receive data stored at the tag unit, (iii) change an operation setting, and (iv) control a operation state, wherein the controller is configured to determine network connection information that is stored at the tag unit, to set the network connection information in the communication unit, and to transmit and receive data through a predetermined network through the communication unit, characterized in that the controller is configured to transmit, in case a network connection through the communication unit is successful, data of the home appliance to the server based on a product information of the home appliance, wherein after the home appliance is registered to the server by the terminal, the operation of the home appliance is controlled based on data received from the terminal.
A radiation therapy planning and follow-up system, comprising: a magnetic resonance scanner with a first bore which defines an MR imaging region that is configured to receive a subject along an MR longitudinal axis; a second imaging scanner with a second bore which defines a second imaging region that is configured to receive the subject along a second longitudinal axis, the second longitudinal axis being aligned with the MR longitudinal axis; and wherein the second imaging scanner is selected from the group: a PET imaging scanner, a SPECT imaging scanner, a computed tomography imaging scanner; and a radiation therapy couch that is configured to move linearly along a patient support track through the MR and second imaging regions (18, 36) for positioning the subject sequentially in the MR and second imaging regions (18, 36), characterised in that: the radiation therapy couch is detachable from the patient support track for use in a radiation therapy system; and the first bore and the second bore having a diameter of at least 70 cm. a magnetic resonance scanner with a first bore which defines an MR imaging region that is configured to receive a subject along an MR longitudinal axis; a second imaging scanner with a second bore which defines a second imaging region that is configured to receive the subject along a second longitudinal axis, the second longitudinal axis being aligned with the MR longitudinal axis; and wherein the second imaging scanner is selected from the group: a PET imaging scanner, a SPECT imaging scanner, a computed tomography imaging scanner; and a radiation therapy couch that is configured to move linearly along a patient support track through the MR and second imaging regions (18, 36) for positioning the subject sequentially in the MR and second imaging regions (18, 36), characterised in that: the radiation therapy couch is detachable from the patient support track for use in a radiation therapy system; and the first bore and the second bore having a diameter of at least 70 cm. the radiation therapy couch is detachable from the patient support track for use in a radiation therapy system; and the first bore and the second bore having a diameter of at least 70 cm.
Battery system comprising a plurality of battery cells (V1,..., V6), a control electronics unit with a control processor for controlling the battery system, and at least one monitoring electronics unit with a monitoring processor for detecting and influencing the voltage of at least some of the battery cells (V1,..., V6) of the battery system, wherein the control processor is communication-connected to the monitoring processor by way of a first communication connection, wherein the monitoring processor has a switch-off pin for switching off and/or resetting the monitoring processor, and the monitoring processor can be switched off and/or reset by the control processor via the switch-off pin, characterized in that the monitoring processor can be switched off and/or reset via the switch-off pin by way of a second communication line which is different from the first communication line and which is connected to the switch-off pin.
Packaging able to contain a plurality of non-electric detonators of the type comprising a metal shell, in particular in the form of a cylindrical cartridge, filled with an explosive able to destroy said metal shells, said packaging comprising walls consisting of at least one outer layer and one inner layer with: - said outer layer consisting of a steel metal mesh whose meshes are able to retain the random projections of said entire metal shells in the event of destruction of said inner layer, - said inner layer consisting of an absorbent inner layer able to (a) prevent physical contact between said outer layer and said metal shells able to be contained in the packaging and (b) absorb fragments of said metal shells able to be contained in said packaging, in the event of an explosion in said packaging resulting in destruction of said metal shells, and - said outer layer and said inner layer being able to allow the gas generated by an explosion inside said packaging to pass through, said absorbent inner layer being formed by 6 independent rectangular solid panels (3a, 3b, 3c) disposed against the walls (2a1-2a5, 2b) of said outer layer forming a parallelepipedal metal cage itself consisting of metal mesh panels connected together by metal fasteners, said panels of said inner layer being of dimensions adapted to allow their insertion into the metal cage while leaving a space between the panels once they have been placed against the walls of the various sides of the metal cage. - said outer layer consisting of a steel metal mesh whose meshes are able to retain the random projections of said entire metal shells in the event of destruction of said inner layer, - said inner layer consisting of an absorbent inner layer able to (a) prevent physical contact between said outer layer and said metal shells able to be contained in the packaging and (b) absorb fragments of said metal shells able to be contained in said packaging, in the event of an explosion in said packaging resulting in destruction of said metal shells, and - said outer layer and said inner layer being able to allow the gas generated by an explosion inside said packaging to pass through, said absorbent inner layer being formed by 6 independent rectangular solid panels (3a, 3b, 3c) disposed against the walls (2a1-2a5, 2b) of said outer layer forming a parallelepipedal metal cage itself consisting of metal mesh panels connected together by metal fasteners, said panels of said inner layer being of dimensions adapted to allow their insertion into the metal cage while leaving a space between the panels once they have been placed against the walls of the various sides of the metal cage.
An isolated nucleic-acid fragment comprising a nucleotide sequence encoding a plant palmitoyl-ACP thioesterase wherein (i) said sequence demonstrates more than 90% overall identity to the DNA sequence encoding the mature functional protein encoded by nucleotides 506 to 1477 of SEQ ID NO:1 and wherein (ii) said encoded thioesterase catalyzes the hydrolysis of palmitoyl, stearoyl and oleoyl-ACP thioesters, with hydrolytic cleavage of the carbon-sulfur thioester bond in the pantothene prosthetic group of palmitoyl-acyl carrier protein as its preferred reaction.
A vehicle emergency rescue device comprising: an input unit configured to receive a vehicle accident information transmission request based on a driver's input; an accident determination unit configured to determine whether a vehicle is in an accident by detecting an external shock based on information from shock detection sensors; a first vehicle accident information generation unit configured to generate first vehicle accident information when the input unit receives the vehicle accident information transmission request or when the accident determination unit determines that the vehicle is in the accident; a first vehicle accident information transmission unit configured to transmit the first vehicle accident information and an emergency call connection request to a control center; an emergency voice call unit configured to connect an emergency call to the control center in response to the emergency call connection request; a second vehicle accident information request receiving unit configured to receive a second vehicle accident information request from the control center; a second vehicle accident information generation unit configured to generate second vehicle accident information; and a second vehicle accident information transmission unit configured to transmit the second vehicle accident information to the control center in response to the second vehicle accident information request, wherein the second vehicle accident information is extended accident information. an input unit configured to receive a vehicle accident information transmission request based on a driver's input; an accident determination unit configured to determine whether a vehicle is in an accident by detecting an external shock based on information from shock detection sensors; a first vehicle accident information generation unit configured to generate first vehicle accident information when the input unit receives the vehicle accident information transmission request or when the accident determination unit determines that the vehicle is in the accident; a first vehicle accident information transmission unit configured to transmit the first vehicle accident information and an emergency call connection request to a control center; an emergency voice call unit configured to connect an emergency call to the control center in response to the emergency call connection request; a second vehicle accident information request receiving unit configured to receive a second vehicle accident information request from the control center; a second vehicle accident information generation unit configured to generate second vehicle accident information; and a second vehicle accident information transmission unit configured to transmit the second vehicle accident information to the control center in response to the second vehicle accident information request, wherein the second vehicle accident information is extended accident information.
A laser processing head comprising: a first parallel plate configured to shift an optical axis of a laser beam from a first optical axis to a second optical axis; a first holder that holds the first parallel plate; a first rotation mechanism configured to rotate the first holder around a first rotary axis; a second parallel plate configured to shift the optical axis of the laser beam that has been shifted to the second optical axis by the first parallel plate to a third optical axis; a second holder that holds the second parallel plate; a second rotation mechanism configured to rotate the second holder around a second rotary axis; and a first case that accommodates the first parallel plate, the first holder, the second parallel plate, and the second holder, wherein the first rotary axis, the second rotary axis, and the first optical axis are aligned with each other, and the laser beam passes through the first case from upward to downward, characterized in that a first light transmission part that the laser beam having been shifted by the first parallel plate and reflected by an incident surface of the second parallel plate passes through is formed in the second holder, and a first light receiving part that receives the laser beam having passed through the first light transmission part is disposed in the first case. a first parallel plate configured to shift an optical axis of a laser beam from a first optical axis to a second optical axis; a first holder that holds the first parallel plate; a first rotation mechanism configured to rotate the first holder around a first rotary axis; a second parallel plate configured to shift the optical axis of the laser beam that has been shifted to the second optical axis by the first parallel plate to a third optical axis; a second holder that holds the second parallel plate; a second rotation mechanism configured to rotate the second holder around a second rotary axis; and a first case that accommodates the first parallel plate, the first holder, the second parallel plate, and the second holder, wherein the first rotary axis, the second rotary axis, and the first optical axis are aligned with each other, and the laser beam passes through the first case from upward to downward, characterized in that a first light transmission part that the laser beam having been shifted by the first parallel plate and reflected by an incident surface of the second parallel plate passes through is formed in the second holder, and a first light receiving part that receives the laser beam having passed through the first light transmission part is disposed in the first case.
A surface treatment liquid comprising a resin and a solvent, wherein the resin comprises a constituent unit comprising an organic group including a quaternary ammonium cation group and having a sulfonic acid anion group at a terminal and the unit being derived from an N-substituted (meth) acrylamide, in at least one of terminals of a main chain of the resin, a terminal group comprising a silanol group and/or a reactive silyl group having a group to generate a silanol group by hydrolysis is bonded, a ratio of a mass of the resin to a mass of the surface treatment liquid is less than 2 mass%, and a pH of the surface treatment liquid is 4 or less. wherein the resin comprises a constituent unit comprising an organic group including a quaternary ammonium cation group and having a sulfonic acid anion group at a terminal and the unit being derived from an N-substituted (meth) acrylamide, in at least one of terminals of a main chain of the resin, a terminal group comprising a silanol group and/or a reactive silyl group having a group to generate a silanol group by hydrolysis is bonded, a ratio of a mass of the resin to a mass of the surface treatment liquid is less than 2 mass%, and a pH of the surface treatment liquid is 4 or less.
A method by a home evolved nodeB, HeNB, gateway, GW, for implementing recovery of a public warning system, PWS, the method comprising: establishing an S1 interface with a HeNB and with a mobility management entity, MME; receiving a PWS restart indication message from the HeNB; replacing an identity of the HeNB in the PWS restart indication message with an identity of the HeNB GW; and transmitting a modified PWS restart indication message including the identity of the HeNB GW to the MME. establishing an S1 interface with a HeNB and with a mobility management entity, MME; receiving a PWS restart indication message from the HeNB; replacing an identity of the HeNB in the PWS restart indication message with an identity of the HeNB GW; and transmitting a modified PWS restart indication message including the identity of the HeNB GW to the MME.
A method of evaluating metastatic potential of a cancer comprising: (a) measuring in vitro the phosphorylation state and/or intracellular localization of inhibitory Apoptosis-Stimulating Protein of p53 (iASPP) in a cancer cell from a mammalian subject, and (b) diagnosing metastatic potential of the cancer based on the phosphorylation state and/or intracellular localization of iASPP in the cancer cell measured according to step (a). (a) measuring in vitro the phosphorylation state and/or intracellular localization of inhibitory Apoptosis-Stimulating Protein of p53 (iASPP) in a cancer cell from a mammalian subject, and (b) diagnosing metastatic potential of the cancer based on the phosphorylation state and/or intracellular localization of iASPP in the cancer cell measured according to step (a).
A measurement apparatus, comprising: a light source unit (100; 101, 102) for emitting a pulse beam; an illumination optical unit (200, 300) for leading the pulse beam emitted by the light source unit to an inside of an inspection object, wherein the illumination optical unit (200, 300) includes a first illumination optical unit and a second illumination optical unit that are arranged so that the inspection object is irradiated with the pulse beam from both sides of the object to be inspected opposingly; and a detection unit for detecting a photoacoustic wave generated by the pulse beam led to the inside of the inspection object; characterized in that the detection unit is disposed so that a detection surface of the detection unit is positioned on the same side of the object to be inspected as the irradiating surface of the first illumination optical unit which irradiates the inspection object with the pulse beam. a light source unit (100; 101, 102) for emitting a pulse beam; an illumination optical unit (200, 300) for leading the pulse beam emitted by the light source unit to an inside of an inspection object, wherein the illumination optical unit (200, 300) includes a first illumination optical unit and a second illumination optical unit that are arranged so that the inspection object is irradiated with the pulse beam from both sides of the object to be inspected opposingly; and a detection unit for detecting a photoacoustic wave generated by the pulse beam led to the inside of the inspection object; characterized in that the detection unit is disposed so that a detection surface of the detection unit is positioned on the same side of the object to be inspected as the irradiating surface of the first illumination optical unit which irradiates the inspection object with the pulse beam.
Product surface, comprising a first optoelectronically readable code formed by an arrangement of planar cells of a first cell type and planar cells of a second cell type, - wherein the cells (6, 7) are an integral constituent part of the product surface, - wherein the cells (6, 7) of each cell type respectively have a surface profile, - wherein the surface profile of at least one cell type comprises at least one elevation and/or depression relative to the product surface, and wherein the surface profile of the first cell type is formed relative to the surface profile of the second cell type in such a way that the reflection properties of the surface profile of the first cell type differ from the reflection properties of the surface profile of the second cell type, characterized in that - the product surface comprises a second code embodied in such a way, - cell types A, which comprise the first cell type of the first code and the second cell type of the second code, have the same surface profile and - cell types B, which comprise the second cell type of the first code and the first cell type of the second code, have the same surface profile, - both codes (5, 51) are quick response codes with the same coding and error tolerance, - the two codes (5, 51) are arranged adjacently on the product surface and - the first code and the second code each have a specific arrangement of cells of the first cell type and of cells of the second cell type, wherein the specific arrangement comprises a square of cells of the first cell type, bordered by cells of the second cell type, which in turn are bordered by cells of the first cell type. - wherein the cells (6, 7) are an integral constituent part of the product surface, - wherein the cells (6, 7) of each cell type respectively have a surface profile, - wherein the surface profile of at least one cell type comprises at least one elevation and/or depression relative to the product surface, and wherein the surface profile of the first cell type is formed relative to the surface profile of the second cell type in such a way that the reflection properties of the surface profile of the first cell type differ from the reflection properties of the surface profile of the second cell type, characterized in that - the product surface comprises a second code embodied in such a way, - cell types A, which comprise the first cell type of the first code and the second cell type of the second code, have the same surface profile and - cell types B, which comprise the second cell type of the first code and the first cell type of the second code, have the same surface profile, - both codes (5, 51) are quick response codes with the same coding and error tolerance, - the two codes (5, 51) are arranged adjacently on the product surface and - the first code and the second code each have a specific arrangement of cells of the first cell type and of cells of the second cell type, wherein the specific arrangement comprises a square of cells of the first cell type, bordered by cells of the second cell type, which in turn are bordered by cells of the first cell type.