mhurhangee/ep-ind-claims huggingface dataset:
An adherence adhesive composition selected from an acryl pressure sensitive adhesive composition, a styrene-conjugated diene block copolymer adherence composition and an ethylene hot melt adhesive, which adherence adhesive composition comprises a tackifier comprising a rosin resin, wherein a ratio of the content of a component with a molecular weight of at most 300 comprised in the rosin resin to the softening point of the rosin resin, that is, the content (% by weight) of a component with a molecular weight of at most 300/softening point, is at most 0.004, and wherein the content of a component with a molecular weight of at most 300 is determined from a value converted to polystyrene and by the summation of the peak area at the lower molecular side than the peak of the unreacted rosin from a value measured by using the gel permeation chromatography (trade name: HLC-8120, manufactured by Tosoh Corporation; trade name: TSKgel Super HM-Lx; 3 pieces, manufactured by Tosoh Corporation) and tetrahydrofuran as a solvent, the softening point is measured in accordance with JIS K 5902, the content of a component with a molecular weight of at most 300 is at most 1.5% by weight, and the rosin resin is an esterified product of rosins and alcohols.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a single downlink control information, DCI, message identifying a plurality of semi-persistent scheduling, SPS, configurations to be jointly activated; determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the received DCI message and a beginning of one or more downlink, DL, data frames based on a first value carried in the DCI message; and characterised by determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the one or more DL data frames and an instance in time at which the UE is to transmit a hybrid automatic repeat request acknowledgement, HARQ-ACK, based on a second value carried in the DCI message. receiving a single downlink control information, DCI, message identifying a plurality of semi-persistent scheduling, SPS, configurations to be jointly activated; determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the received DCI message and a beginning of one or more downlink, DL, data frames based on a first value carried in the DCI message; and characterised by determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the one or more DL data frames and an instance in time at which the UE is to transmit a hybrid automatic repeat request acknowledgement, HARQ-ACK, based on a second value carried in the DCI message.
Method for transferring a file between a control device of a motor vehicle and a server device outside the vehicle, wherein the control device in the motor vehicle is connected via a data network with a communication device which provides a wireless connection, used for the transfer of the file, to the server device and which buffers data of the file during the transfer, wherein - the file is divided into several file segments, - a respective segment recognition is determined for each file segment, - prior to the transfer of the file the segment recognitions are transferred via the wireless connection, - the file segments are requested individually independently of one another via the wireless connection by means of a respective request command, wherein the request command comprises the segment recognition of the requested file segment, - each requested file segment is transferred independently of the remaining file segments, and - a segment size of the file segments is set depending on a buffer size of a data buffer, in which the communication device buffers the data of the file. - the file is divided into several file segments, - a respective segment recognition is determined for each file segment, - prior to the transfer of the file the segment recognitions are transferred via the wireless connection, - the file segments are requested individually independently of one another via the wireless connection by means of a respective request command, wherein the request command comprises the segment recognition of the requested file segment, - each requested file segment is transferred independently of the remaining file segments, and - a segment size of the file segments is set depending on a buffer size of a data buffer, in which the communication device buffers the data of the file.
Covering element (10, 110) for a road channel or well (20, 120) comprising a support body provided with edges for resting on said road channel or well (20, 120), one or more rest walls and rib walls projecting from said rest walls in a manner coordinated with the direction of application of a weight force, wherein it comprises a plurality of contiguous stiffening load-bearing structures, having the structural function of resisting the load generated by said weight force and each being defined by a lower reinforcement wall connected to at least one corresponding rib wall which is in turn connected to a corresponding rest wall, wherein each reinforcement wall is capable of resisting the tensile stresses generated by said weight force, disposed substantially parallel, or slightly inclined, with respect to said rest wall, and is monolithic and continuous along the entire longitudinal extension of the corresponding rib wall, characterized in that said stiffening load-bearing structures are each defined by a box structure comprising a reinforcement wall connected to two reciprocally facing rib walls which are each connected to a corresponding rest wall, in such a way as to determine an inverted Ω shape.
A personal care composition comprising a carrier having distributed therein a plurality of lamellar fragments, wherein said fragments comprise a matrix and a functional material, wherein said carrier is suitable for use in an antiperspirant or deodorant composition, wherein said matrix comprises a film forming material selected from the group consisting of water soluble polymers, water dispersible polymers, water insoluble polymers, and mixtures thereof, and wherein the functional material comprises an antiperspirant salt.
Carrier structure for a teeth cleaning device for the simultaneous cleaning of multiple, preferably all of a user's teeth, comprising: a mouth insert for the user's upper jaw and a mouth insert for the user's lower jaw; and a coupling section having two arms and a connecting section for the drive device wherein the mouth inserts (30a, 30b) are each connected to an arm of the coupling section and the connecting section for the drive device is adapted so that it can be connected to a drive device via a fastener thereof, wherein at least one of the mouth inserts (30a, 30b) comprises a first mouth insert section and a second mouth insert section, which are connected to a pivot spring section (130a, 130b) which is less rigid in the plane of the dentition extending substantially parallel to and between the mouth inserts (30a, 30b) than the first and second mouth insert sections in order to facilitate a deformation of the respective mouth insert (30a, 30b) in the plane of the dentition. a mouth insert for the user's upper jaw and a mouth insert for the user's lower jaw; and a coupling section having two arms and a connecting section for the drive device wherein the mouth inserts (30a, 30b) are each connected to an arm of the coupling section and the connecting section for the drive device is adapted so that it can be connected to a drive device via a fastener thereof, wherein at least one of the mouth inserts (30a, 30b) comprises a first mouth insert section and a second mouth insert section, which are connected to a pivot spring section (130a, 130b) which is less rigid in the plane of the dentition extending substantially parallel to and between the mouth inserts (30a, 30b) than the first and second mouth insert sections in order to facilitate a deformation of the respective mouth insert (30a, 30b) in the plane of the dentition.
An isolated nucleic acid molecule comprising a Thraustochytrium gene promoter comprising a nucleotide sequence at least 80% identical to SEQ ID NO:10, and a Thraustochytrium gene terminator.
Drilling device with - a drill rod which can be driven in a rotating manner and has an internal line, - a support rope, - a rotary joint which is arranged between the drill rod and the support rope and has a holding member which is in connection with the support rope and a rotary member which is in connection with the rotatable drill rod, - a line for a fluid and/or data, and - a rotary feed-through which is designed for the passage of fluid and/or data between the line and the internal line of the drill rod, wherein the rotary feed-through has a rotor connected to the drill rod and a non-rotating stator, to which the fluid line is attached, characterized in that - the support rope is designed in a torsion-proof manner and - in that a rigid connecting element is arranged as a torque support between the stator of the rotary feed-through and the torsion-proof support rope. - a drill rod which can be driven in a rotating manner and has an internal line, - a support rope, - a rotary joint which is arranged between the drill rod and the support rope and has a holding member which is in connection with the support rope and a rotary member which is in connection with the rotatable drill rod, - a line for a fluid and/or data, and - a rotary feed-through which is designed for the passage of fluid and/or data between the line and the internal line of the drill rod, wherein the rotary feed-through has a rotor connected to the drill rod and a non-rotating stator, to which the fluid line is attached, - the support rope is designed in a torsion-proof manner and - in that a rigid connecting element is arranged as a torque support between the stator of the rotary feed-through and the torsion-proof support rope.
A process for converting a high-boiling hydrocarbon feedstock into lighter boiling hydrocarbon products, said lighter boiling hydrocarbon products being suitable as a feedstock for petrochemicals processes, said converting process comprising the following steps of: feeding a heavy hydrocarbon feedstock to a cascade of hydrocracking units, wherein the cascade of hydrocracking units comprises at least two hydrocracking units, cracking said feedstock in a hydrocracking unit, separating said cracked feedstock into a top stream comprising a light boiling hydrocarbon fraction and a bottom stream comprising a heavy hydrocarbon fraction feeding said bottom stream of such a hydrocracking unit as a feedstock for a subsequent hydrocracking unit in said cascade of hydrocracking units, wherein the process conditions in each hydrocracking units are different from each other, in which the temperature from the first to the subsequent hydrocracking units increases, and processing the lighter boiling hydrocarbon fractions from each hydrocracking units as a feedstock for a BTX and LPG producing unit, said BTX and LPG producing unit being a hydrocracking unit wherein the process conditions prevailing in said hydrocracking unit are different from the process conditions prevailing in any one of the hydrocracking units in the cascade of hydrocracking units, wherein each hydrocracking unit in said cascade of hydrocracking units is operated under liquid phase hydrocracking conditions, and wherein said hydrocracking unit as said BTX and LPG producing unit is operated under gaseous phase hydrocracking conditions. feeding a heavy hydrocarbon feedstock to a cascade of hydrocracking units, wherein the cascade of hydrocracking units comprises at least two hydrocracking units, cracking said feedstock in a hydrocracking unit, separating said cracked feedstock into a top stream comprising a light boiling hydrocarbon fraction and a bottom stream comprising a heavy hydrocarbon fraction feeding said bottom stream of such a hydrocracking unit as a feedstock for a subsequent hydrocracking unit in said cascade of hydrocracking units, wherein the process conditions in each hydrocracking units are different from each other, in which the temperature from the first to the subsequent hydrocracking units increases, and processing the lighter boiling hydrocarbon fractions from each hydrocracking units as a feedstock for a BTX and LPG producing unit, said BTX and LPG producing unit being a hydrocracking unit wherein the process conditions prevailing in said hydrocracking unit are different from the process conditions prevailing in any one of the hydrocracking units in the cascade of hydrocracking units, wherein each hydrocracking unit in said cascade of hydrocracking units is operated under liquid phase hydrocracking conditions, and wherein said hydrocracking unit as said BTX and LPG producing unit is operated under gaseous phase hydrocracking conditions.
A final electrochemical cell comprising: a first anode comprising a first current collector and a first electroactive material layer; a second anode comprising a second current collector and a second electroactive material layer; an electrolyte; a cathode; and a release layer (27: 24A, 24B) having an adhesive affinity, wherein the release layer is positioned between the first and second current collectors and adheres together the first and second current collectors. a first anode comprising a first current collector and a first electroactive material layer; a second anode comprising a second current collector and a second electroactive material layer; an electrolyte; a cathode; and a release layer (27: 24A, 24B) having an adhesive affinity, wherein the release layer is positioned between the first and second current collectors and adheres together the first and second current collectors.
A mechanical deployment and actuation system, said system comprising: a rotation module configured to couple to a housing, wherein the rotation module is configured to at least partially rotate about a principal axis of the rotation module relative to the housing; a pinion module configured to couple to the rotation module, wherein the pinion module is configured to selectively rotate about a principal axis of the pinion module relative to the rotation module; a rack module configured to dynamically couple to the pinion module, wherein the rack module is configured to translate along a principal axis of the rack module in response to a rotation of the pinion module; and a bevel module configured to couple to the rotation module, wherein the bevel module is configured to selectively rotate the rotation module, wherein such rotation of the rotation module at least partially rotates about the principal axes of the rotation module and the rack module; wherein the system is configured for at least one of deployment in response to a rack module translation and actuation in response to a bevel module rotation. a rotation module configured to couple to a housing, wherein the rotation module is configured to at least partially rotate about a principal axis of the rotation module relative to the housing; a pinion module configured to couple to the rotation module, wherein the pinion module is configured to selectively rotate about a principal axis of the pinion module relative to the rotation module; a rack module configured to dynamically couple to the pinion module, wherein the rack module is configured to translate along a principal axis of the rack module in response to a rotation of the pinion module; and a bevel module configured to couple to the rotation module, wherein the bevel module is configured to selectively rotate the rotation module, wherein such rotation of the rotation module at least partially rotates about the principal axes of the rotation module and the rack module; wherein the system is configured for at least one of deployment in response to a rack module translation and actuation in response to a bevel module rotation.
Method for digitally printing a ceramic ink on a glass substrate, which comprises the following steps: (a) applying a ceramic ink to a glass substrate by means of a printhead of a digital printer; and (b) heating the ceramic of the ceramic ink to at least the melting point of the ceramic by means of a laser beam of a laser, wherein step (b) takes place at the same time as step (a), characterized in that the laser beam for heating the ceramic of the ceramic ink is radiated in from the side of the glass substrate which lies opposite the side to which the ceramic ink is applied. (a) applying a ceramic ink to a glass substrate by means of a printhead of a digital printer; and (b) heating the ceramic of the ceramic ink to at least the melting point of the ceramic by means of a laser beam of a laser,
A method of managing a tab window, the method comprising: displaying, on a terminal screen, a tab window; wherein the tab window is in card view form, where titles of applications included in the tab window are displayed on a predetermined region of the tab window, and wherein, when one of the applications included in the tab window is executed, an execution screen of the executed application is displayed at the very front, and when a plurality of applications is executed among the applications included in the tab window, the tab window is split and execution screens (1641, 1642, 1643, 1644) of the executed applications are displayed. displaying, on a terminal screen, a tab window; wherein the tab window is in card view form, where titles of applications included in the tab window are displayed on a predetermined region of the tab window, and wherein, when one of the applications included in the tab window is executed, an execution screen of the executed application is displayed at the very front, and when a plurality of applications is executed among the applications included in the tab window, the tab window is split and execution screens (1641, 1642, 1643, 1644) of the executed applications are displayed.
A high-frequency heating device comprising: a high-frequency power generation unit configured to generate high-frequency power; a surface wave excitation body configured to propagate the high-frequency power with a surface wave to heat a heating-target object; a high-frequency power supply unit configured to supply the high-frequency power to the surface wave excitation body; and a mounting stand on which the heating-target object is mounted, characterized in that, the high-frequency power generation unit is a variable high-frequency oscillator configured to generate the high-frequency power at a frequency (fp) to be set, the frequency (fp) being set equal to or lower than exciting frequency (fc) of the surface wave excitation body, or being set higher than the exciting frequency (fc), in accordance with a degree, corresponding to a heating state desired by a user, of surface concentration of high-frequency power around the surface of the surface wave excitation body. a high-frequency power generation unit configured to generate high-frequency power; a surface wave excitation body configured to propagate the high-frequency power with a surface wave to heat a heating-target object; a high-frequency power supply unit configured to supply the high-frequency power to the surface wave excitation body; and a mounting stand on which the heating-target object is mounted, characterized in that, the high-frequency power generation unit is a variable high-frequency oscillator configured to generate the high-frequency power at a frequency (fp) to be set, the frequency (fp) being set equal to or lower than exciting frequency (fc) of the surface wave excitation body, or being set higher than the exciting frequency (fc), in accordance with a degree, corresponding to a heating state desired by a user, of surface concentration of high-frequency power around the surface of the surface wave excitation body.
A method of making a continuous fiber-reinforced composite tank (100, 201, 202, 301, 302) of prismatic shape and thickness e for storing a pressurized gas in an internal cavity of said tank, which tank includes fibers (504, 804) extending between two non-contiguous sides of said tank through the internal cavity, comprising the steps consisting of: i. obtaining a prismatic fibrous preform of thickness e comprising three-dimensional continuous reinforcements throughout its thickness; ii. impregnating an outer layer of said preform with a polymer to a thickness of less than 1/4 of the thickness e so as to form a composite outer envelope extending over all faces of the prism; iii. making a watertight layer constituting an internal lining, with a thickness less than 1/10th of the thickness e between the external envelope and the fibrous network contained in the tank cavity; characterised in that the method further comprises the steps consisting of: ii.a packing the preform obtained in step i) in a sealed enclosure; ii.b. evacuating the enclosure comprising the preform; ii.c filling the enclosure comprising the preform with a liquid; ii.d freezing the preform soaked in the liquid; ii.e freeze-drying an outer layer of the preform; ii.f impregnating said outer layer with a polymer so as to form the outer shell; ii.g removing the liquid remaining in the preform i. obtaining a prismatic fibrous preform of thickness e comprising three-dimensional continuous reinforcements throughout its thickness; ii. impregnating an outer layer of said preform with a polymer to a thickness of less than 1/4 of the thickness e so as to form a composite outer envelope extending over all faces of the prism; iii. making a watertight layer constituting an internal lining, with a thickness less than 1/10th of the thickness e between the external envelope and the fibrous network contained in the tank cavity; characterised in that the method further comprises the steps consisting of: ii.a packing the preform obtained in step i) in a sealed enclosure; ii.b. evacuating the enclosure comprising the preform; ii.c filling the enclosure comprising the preform with a liquid; ii.d freezing the preform soaked in the liquid; ii.e freeze-drying an outer layer of the preform; ii.f impregnating said outer layer with a polymer so as to form the outer shell; ii.g removing the liquid remaining in the preform