mhurhangee/patent-ind-claim-en huggingface dataset:
Tool-holder for a manual engraving machine, comprising a carrier (C) equipped with at least a revolver-like body rotatably mounted with respect to a support base by means of a tightening rotation spindle and equipped with a plurality of engraving tools (4a-4c) fastened by means of tool retaining means (6a-6c), characterised in that said revolver-like body is axially displaceable with respect to said support body and pushed against said support body by first elastic biasing means constrained by said rotation spindle , in that between said support base and said revolver-like body preventing rotation coupling means are provided, apt to be released by axial displacement along said rotation spindle , and in that said tool retaining means (6a-6c) are removable. said revolver-like body is axially displaceable with respect to said support body and pushed against said support body by first elastic biasing means constrained by said rotation spindle , in that between said support base and said revolver-like body preventing rotation coupling means are provided, apt to be released by axial displacement along said rotation spindle , and in that said tool retaining means (6a-6c) are removable.
A composition consisting essentially of: a) a fragrance component, in an amount of between 3 and 40% by weight of the composition's weight, at least 40% by weight of the total weight of said fragrance component being formed of perfuming ingredients having a calculated vapor pressure V comprised in the range 0.01 ≤ V ≤ 500 Pa; b) from 40 to 90% by weight, relative to the total weight of the composition, of ethanol; c) from 0.01 to 20% by weight, relative to the total weight of the composition, of a fragrance modulator comprising more than 50% by weight of the total weight of fragrance modulator of Neopentyl Glycol Diethylhexanoate; and d) optionally water; and wherein the sum of the weights of ingredients a) to d) in the composition adds up to at least 98% of the composition's weight. a) a fragrance component, in an amount of between 3 and 40% by weight of the composition's weight, at least 40% by weight of the total weight of said fragrance component being formed of perfuming ingredients having a calculated vapor pressure V comprised in the range 0.01 ≤ V ≤ 500 Pa; b) from 40 to 90% by weight, relative to the total weight of the composition, of ethanol; c) from 0.01 to 20% by weight, relative to the total weight of the composition, of a fragrance modulator comprising more than 50% by weight of the total weight of fragrance modulator of Neopentyl Glycol Diethylhexanoate; and d) optionally water;
A resource allocation method, comprising: • allocating (S401), by a network-side device, a first resource block, wherein the first resource block is used to carry a positioning reference signal, and the positioning reference signal is used to perform positioning on a terminal device; • determining (S402), by the network-side device, a first allocation mode of the first resource block, wherein the first allocation mode is configuring the positioning reference signal in all unoccupied resource elements of the first resource block; and • sending (S403), by the network-side device, the positioning reference signal on the first resource block in the first allocation mode, or receiving (S403), by the network-side device, the positioning reference signal on the first resource block in the first allocation mode. • allocating (S401), by a network-side device, a first resource block, wherein the first resource block is used to carry a positioning reference signal, and the positioning reference signal is used to perform positioning on a terminal device; • determining (S402), by the network-side device, a first allocation mode of the first resource block, wherein the first allocation mode is configuring the positioning reference signal in all unoccupied resource elements of the first resource block; and • sending (S403), by the network-side device, the positioning reference signal on the first resource block in the first allocation mode, or receiving (S403), by the network-side device, the positioning reference signal on the first resource block in the first allocation mode.
A method performed by a network element of a radio communication network, the method comprising: grouping, by the network element, a plurality of discovery patterns into at least a first group and a second group in a discovery pattern area, wherein each discovery pattern comprises one or more discovery slots on radio resources used to transmit discovery signals by a terminal device for device-to-device communication, and wherein the first group and the second group have at least partially non-overlapping discovery slots; associating the first group with a first spatial parameter and the second group with a second spatial parameter different from the first spatial parameter; and transmitting configuration information enabling a first terminal device to utilize a discovery pattern belonging to the first group associated with the first spatial parameter that corresponds to spatial information of the first terminal device in the discovery pattern area, and further enabling a second terminal device to utilize a discovery pattern belonging to the second group associated with the second spatial parameter that corresponds to spatial information of the second terminal device in the discovery pattern area, wherein the configuration information comprises an allocation of a discovery pattern or an indication of a group, and wherein the first spatial parameter comprises at least one of a location and moving direction of the first terminal device, and the second spatial parameter comprises at least one of a location and moving direction of the second terminal device. grouping, by the network element, a plurality of discovery patterns into at least a first group and a second group in a discovery pattern area, wherein each discovery pattern comprises one or more discovery slots on radio resources used to transmit discovery signals by a terminal device for device-to-device communication, and wherein the first group and the second group have at least partially non-overlapping discovery slots; associating the first group with a first spatial parameter and the second group with a second spatial parameter different from the first spatial parameter; and transmitting configuration information enabling a first terminal device to utilize a discovery pattern belonging to the first group associated with the first spatial parameter that corresponds to spatial information of the first terminal device in the discovery pattern area, and further enabling a second terminal device to utilize a discovery pattern belonging to the second group associated with the second spatial parameter that corresponds to spatial information of the second terminal device in the discovery pattern area, wherein the configuration information comprises an allocation of a discovery pattern or an indication of a group, and wherein the first spatial parameter comprises at least one of a location and moving direction of the first terminal device, and the second spatial parameter comprises at least one of a location and moving direction of the second terminal device.
A suspension device for a non-steered driving wheel which is rotationally driven by an in-wheel motor incorporated in a wheel carrier , the suspension device comprising a suspension arm pivotally supported on a vehicle body of a vehicle and connected to the wheel carrier by a connecting structure , wherein the connecting structure includes a plate member fixed to the wheel carrier by fastening at positions spaced in the front-rear direction of a vehicle, and a pair of elastic bushing devices attached to the plate member in a state of being inserted through the plate member at positions spaced in the front-rear direction of the vehicle; characterized in that the suspension arm has open cross sectional portions which each receive a portion of the plate member and the elastic bushing device; and the elastic bushing devices are fixed to the open cross sectional portions at both ends.
A computer system for automatically overclocking, comprising: an overclocking element having a signal standard; a detecting circuit for acquiring an input/output (I/O) signal (Ds) of the overclocking element , and detecting a reference clock (Rs) and the I/O signal and obtaining a phase difference between the reference clock (Rs) and the I/O signal, wherein the signal standard comprises the setting of a rated setup time (tDS2) of the I/O signal (Ds) and the setting of a rated hold time (tDH2) of the I/O signal (Ds), wherein the rated setup time (tDS2) and the rated hold time (tDH2) in the signal standard are respectively a minimal setup time and a minimal hold time for normally reading the I/O signal (Ds); and a basic input/output system (BIOS) configured to work out an I/O setup time (tDS1) of the I/O signal (Ds) and an I/O hold time (tDH1) of the I/O signal (Ds) according to the phase difference, compare the I/O setup time (tDS1) with the rated setup time (tDS2) and compare the I/O hold time (tDH1) with the rated hold time (tDH2), thus getting a comparing result, and increase a frequency of the reference clock (Rs) to make the I/O setup time (tDS1) closest to but not less than the rated setup time (tDS2) and to make the I/O hold time (tDH1) closest to but not less than the rated hold time (tDH2) according to the comparing result, to maximize the frequency of the reference clock; wherein the reference clock is an input signal of the overclocking element . an overclocking element having a signal standard; a detecting circuit for acquiring an input/output (I/O) signal (Ds) of the overclocking element , and detecting a reference clock (Rs) and the I/O signal and obtaining a phase difference between the reference clock (Rs) and the I/O signal, wherein the signal standard comprises the setting of a rated setup time (tDS2) of the I/O signal (Ds) and the setting of a rated hold time (tDH2) of the I/O signal (Ds), wherein the rated setup time (tDS2) and the rated hold time (tDH2) in the signal standard are respectively a minimal setup time and a minimal hold time for normally reading the I/O signal (Ds); and a basic input/output system (BIOS) configured to work out an I/O setup time (tDS1) of the I/O signal (Ds) and an I/O hold time (tDH1) of the I/O signal (Ds) according to the phase difference, compare the I/O setup time (tDS1) with the rated setup time (tDS2) and compare the I/O hold time (tDH1) with the rated hold time (tDH2), thus getting a comparing result, and increase a frequency of the reference clock (Rs) to make the I/O setup time (tDS1) closest to but not less than the rated setup time (tDS2) and to make the I/O hold time (tDH1) closest to but not less than the rated hold time (tDH2) according to the comparing result, to maximize the frequency of the reference clock; wherein the reference clock is an input signal of the overclocking element .
A method of preparing a bispecific antibody comprising i) a first antibody heavy chain comprising a knob modification, which comprises a T366W substitution (EU numbering), wherein the first antibody heavy chain is associated with a first light chain, and ii) a second antibody heavy chain comprising a hole modification, which comprises two or more amino acid substitutions selected from the group consisting of T366S, L368A, and Y407V (EU numbering), wherein the second antibody heavy chain is associated with a second light chain, wherein the hole modification interacts with the knob modification at an interface, and wherein the first and second antibody heavy chain are linked by at least one interchain disulfide bond, the method comprising the steps of: (a) culturing a combined culture of a first host cell and a second host cell, wherein the first host cell express the first antibody heavy chain and the first light chain, wherein the second host cell expresses the second antibody heavy chain and the second light chain, and wherein the first host cell and the second host cell are each a mammalian cell; (b) adding reduced glutathione (GSH) to the combined culture to achieve a final concentration of 5mM to 20mM; and (c) harvesting a combined culture medium from the combined culture without disrupting cell membrane 4 to 24 hours after adding the GSH to the combined culture, wherein harvesting comprises removing the first host cell and the second host cell from the combined culture medium, wherein the combined culture medium comprises the bispecific antibody, and wherein the bispecific antibody is human or humanized. (a) culturing a combined culture of a first host cell and a second host cell, wherein the first host cell express the first antibody heavy chain and the first light chain, wherein the second host cell expresses the second antibody heavy chain and the second light chain, and wherein the first host cell and the second host cell are each a mammalian cell; (b) adding reduced glutathione (GSH) to the combined culture to achieve a final concentration of 5mM to 20mM; and (c) harvesting a combined culture medium from the combined culture without disrupting cell membrane 4 to 24 hours after adding the GSH to the combined culture, wherein harvesting comprises removing the first host cell and the second host cell from the combined culture medium, wherein the combined culture medium comprises the bispecific antibody, and wherein the bispecific antibody is human or humanized.
Method for operating a clutch of a drive train of a motor vehicle, comprising the clutch , a drive motor , a primary axis having first wheels , which can be driven by the drive motor , as a first axis, and a secondary axis having second wheels , which can be driven by the drive motor via the clutch , as a second axis, wherein the clutch is adjusted between a closed position, in which a first coupling torque of the clutch is set, and at least one second position, which is different from the closed position and in which a lower second coupling torque of the clutch , relative to the first coupling torque, is set, comprising the steps: - determining at least one coefficient of friction of a roadway on which the motor vehicle is located; and - depending on the determined coefficient of friction: adjusting a basic torque of the clutch , which is pre-tensioned by the basic torque in the second position; characterised in that an expected behaviour of the motor vehicle is calculated by means of an electronic computing device of the motor vehicle on the basis of at least one computer model, wherein the coefficient of friction is determined depending on the calculated behaviour. - determining at least one coefficient of friction of a roadway on which the motor vehicle is located; and - depending on the determined coefficient of friction: adjusting a basic torque of the clutch , which is pre-tensioned by the basic torque in the second position;
Separating device for separating a working chamber and a compensation chamber of a hydraulically damping bearing , comprising a first nozzle disc and a second nozzle disc , which are made of a first material and form a damping channel which can connect the working chamber and the compensation chamber to one another, the second nozzle disc having a receiving opening , into which the first nozzle disc is inserted, characterised in that the first nozzle disc has a sealing element made of a second material which abuts the second nozzle disc in order to seal the damping channel , wherein an interference fit exists between the sealing element and an inner circumferential wall of the receiving opening .
A method of supporting consumption of a service by a service consumer , said service consumer residing in a visited telecommunication network and arranged to consume a service produced by a service producer , wherein said service producer is residing in a home telecommunication network , said method comprising the step of: a) receive, by a network node acting as Service Discovery for Visited Network, SDVN, function which takes the role of an intermediate consumer of the services provided in said home telecommunication network, from a service producer a request for registration of services accessible from the visited telecommunication network and adding the services to a list of available services within the home telecommunication network that service consumers in the visited telecommunication network are allowed to access, characterised in that both said visited and home telecommunication networks have a Service Based Architecture, SBA, and said service consumer and service producer are network functions in the respective SBA; b) receiving , by said network node, a service operation message requesting an operation execution, within a particular service produced by said service producer , for said service consumer in said visited telecommunication network ; c) determining , by said network node, that said home network is able to provide for said requested particular service produced by said service producer based on said retrieved list of available services ; d) selecting , by said network node, one or more service instances of said particular service produced by said service producer for executing said operation within said particular service for said service consumer . a) receive, by a network node acting as Service Discovery for Visited Network, SDVN, function which takes the role of an intermediate consumer of the services provided in said home telecommunication network, from a service producer a request for registration of services accessible from the visited telecommunication network and adding the services to a list of available services within the home telecommunication network that service consumers in the visited telecommunication network are allowed to access, characterised in that both said visited and home telecommunication networks have a Service Based Architecture, SBA, and said service consumer and service producer are network functions in the respective SBA; b) receiving , by said network node, a service operation message requesting an operation execution, within a particular service produced by said service producer , for said service consumer in said visited telecommunication network ; c) determining , by said network node, that said home network is able to provide for said requested particular service produced by said service producer based on said retrieved list of available services ; d) selecting , by said network node, one or more service instances of said particular service produced by said service producer for executing said operation within said particular service for said service consumer .
A cryocooler comprising helium-4 which generates a coldness having 4 [K] or lower by expanding helium-4, comprising: an expander which expands high-pressure helium-4; and a compressor which compresses low-pressure helium-4 returned from the expander , generates high-pressure helium-4, and supplies the high-pressure helium-4 to the expander , wherein the compressor is adapted to set, when a temperature of helium-4 in the expander is 2.17 [K] or lower, the pressure of the low-pressure helium-4 equal to or higher than a pressure of a curve in which a volumetric thermal expansion coefficient of helium-4 is 0 in a state diagram of helium-4 in which a horizontal axis is temperature and a vertical axis is pressure. an expander which expands high-pressure helium-4; and a compressor which compresses low-pressure helium-4 returned from the expander , generates high-pressure helium-4, and supplies the high-pressure helium-4 to the expander , wherein the compressor is adapted to set, when a temperature of helium-4 in the expander is 2.17 [K] or lower, the pressure of the low-pressure helium-4 equal to or higher than a pressure of a curve in which a volumetric thermal expansion coefficient of helium-4 is 0 in a state diagram of helium-4 in which a horizontal axis is temperature and a vertical axis is pressure.
A control device for controlling flight vehicles having an antenna for forming a multi-cell on ground to provide a wireless communication service to a user terminal in the multi-cell, the control device comprising a replacement control unit configured to control replacement of a first flight vehicle covering an object area on the ground by means of the multi-cell with a second flight vehicle , wherein the replacement control unit is further configured to send instructions to the first flight vehicle covering the object area on the ground by means of the multi-cell to cause the first flight vehicle to change the multi-cell into a virtual single cell ; send instructions to the second flight vehicle to move to a location corresponding to a location of the first flight vehicle and form a single cell with a same frequency as that of the virtual single cell such that the locations of the virtual single cell and the formed single cell are aligned with each other; send instructions to the first vehicle and the second vehicle to start providing a wireless communication service by the second flight vehicle and the first flight vehicle to the user terminal by Coordinated Multiple Point transmission/reception Joint Transmission, CoMP JT, and then send instructions to the first flight vehicle to stop forming the virtual single cell and to the second flight vehicle to form a multi-cell by shrinking the formed single cell while forming a plurality of other cells , wherein the multi-cell of the second flight vehicle covers the object area that has been covered by the multi-cell of the first flight vehicle . a replacement control unit configured to control replacement of a first flight vehicle covering an object area on the ground by means of the multi-cell with a second flight vehicle , wherein the replacement control unit is further configured to send instructions to the first flight vehicle covering the object area on the ground by means of the multi-cell to cause the first flight vehicle to change the multi-cell into a virtual single cell ; send instructions to the second flight vehicle to move to a location corresponding to a location of the first flight vehicle and form a single cell with a same frequency as that of the virtual single cell such that the locations of the virtual single cell and the formed single cell are aligned with each other; send instructions to the first vehicle and the second vehicle to start providing a wireless communication service by the second flight vehicle and the first flight vehicle to the user terminal by Coordinated Multiple Point transmission/reception Joint Transmission, CoMP JT, and then send instructions to the first flight vehicle to stop forming the virtual single cell and to the second flight vehicle to form a multi-cell by shrinking the formed single cell while forming a plurality of other cells , wherein the multi-cell of the second flight vehicle covers the object area that has been covered by the multi-cell of the first flight vehicle .
A method of applying a coating applied to at least part of the surface of an article, said coating being conductive and corrosion resistant, the method comprising applying a layer including a transition metal applied to the said surface of the article and applying a material to said layer which is substantially carbon based with a graphite microcrystalline structure said article is electrically conductive and the said coating is applied using apparatus including a chamber in which the article is held with an electrical bias on a carrier , and at least one magnetron with a target of the material which is sputter deposited onto the article such as to allow the article with the coating thereon to continue to be electrically conductive when placed in a corrosive medium, and a power supply is connected to the at least one magnetron to cause the sputter deposition of material therefrom and characterised in that the level of the power supply is increased during the sputter application of the material to form the coating on the article and there is at least a phase during the sputter application in which the current of the power supply is increased at a greater rate than the voltage of the power supply .