mhurhangee/ep-ind-claims huggingface dataset:
A 3D printing system for creating a 3D printed object, the 3D printing system comprising: a platform upon which the 3D printed object can be supported during a 3D printing process; an ink jet printing region that selectively deposits a hydrogel material and a support material on the platform, wherein the ink jet printing region comprises an ink jet printhead comprising a first plurality of orifices through which the hydrogel material can be selectively deposited onto the platform and a second plurality of orifices through which the support material can be selectively deposited onto the platform; an initiation portion that includes a catalyst source, wherein the catalyst source is a source of actinic radiation that selectively projects light on the material on the platform to cause a reaction within at least a portion of the hydrogel material, wherein the catalyst is selectively applied to some of the exposed hydrogel material on the platform, characterized in that the 3D printing system further comprises a drying region comprising a dryer to remove excess water in the hydrogel material and through which the platform passes to dry at least a portion of the material on the platform;and wherein the 3D printed object is a scaffold for a biological structure, further characterized in that the ink jet printing region further comprises a planarizer to remove any excess hydrogel material or support material from an uppermost layer of material supported by the platform. a platform upon which the 3D printed object can be supported during a 3D printing process; an ink jet printing region that selectively deposits a hydrogel material and a support material on the platform, wherein the ink jet printing region comprises an ink jet printhead comprising a first plurality of orifices through which the hydrogel material can be selectively deposited onto the platform and a second plurality of orifices through which the support material can be selectively deposited onto the platform; an initiation portion that includes a catalyst source, wherein the catalyst source is a source of actinic radiation that selectively projects light on the material on the platform to cause a reaction within at least a portion of the hydrogel material, wherein the catalyst is selectively applied to some of the exposed hydrogel material on the platform, characterized in that the 3D printing system further comprises a drying region comprising a dryer to remove excess water in the hydrogel material and through which the platform passes to dry at least a portion of the material on the platform;and wherein the 3D printed object is a scaffold for a biological structure, further characterized in that the ink jet printing region further comprises a planarizer to remove any excess hydrogel material or support material from an uppermost layer of material supported by the platform.
Process for manufacturing high Mn content austenitic steel of the TWIP (Twinning Induced Plasticity) type, with high mechanical resistance and formability, characterized in that the steel has the following chemical composition, in percentage by weight: C 0.2-1.5; Mn 10-25; optionally Ni<2; Si 0.05-2.00; Al 0.01-2.0; 0.01=<N<0.1; P+Sn+Sb+As<0.2; S+Se+Te<0.5; and Nb+Co 0.1-0.4 and Re+W<l, the balance being Fe apart from unavoidable impurities, and in that, after having been subjected to cold rolling, it is subjected to recrystallization annealing carried out - for continuous annealing, at a temperature within the range of 900°C-1100°C for a time interval between 60 seconds and 120 seconds, or - for batch annealing, at a temperature within the range of 700°C-800°C for a time interval between 30 minutes and 400 minutes, the annealing atmosphere comprising Carbon activity a c between 0.1 and 1.0, nitrogen N 2 content between 90% and 100% for continuous annealing, or between 0% and 100% for batch annealing, hydrogen H 2 content between 0% and 10% for continuous annealing, or between 0% and 100% for batch annealing, being the dew point for continuous and batch annealing lower than 0°C and preferably between - 10°C and - 50°C. C 0.2-1.5; Mn 10-25; optionally Ni<2; Si 0.05-2.00; Al 0.01-2.0; 0.01=<N<0.1; P+Sn+Sb+As<0.2; S+Se+Te<0.5; and Nb+Co 0.1-0.4 and Re+W<l, the balance being Fe apart from unavoidable impurities, and in that, after having been subjected to cold rolling, it is subjected to recrystallization annealing carried out - for continuous annealing, at a temperature within the range of 900°C-1100°C for a time interval between 60 seconds and 120 seconds, or - for batch annealing, at a temperature within the range of 700°C-800°C for a time interval between 30 minutes and 400 minutes, the annealing atmosphere comprising Carbon activity a c between 0.1 and 1.0, nitrogen N 2 content between 90% and 100% for continuous annealing, or between 0% and 100% for batch annealing, hydrogen H 2 content between 0% and 10% for continuous annealing, or between 0% and 100% for batch annealing, being the dew point for continuous and batch annealing lower than 0°C and preferably between - 10°C and - 50°C. - for continuous annealing, at a temperature within the range of 900°C-1100°C for a time interval between 60 seconds and 120 seconds, or - for batch annealing, at a temperature within the range of 700°C-800°C for a time interval between 30 minutes and 400 minutes,
A method (800, 900, 1000) for wireless communication, comprising: Receiving, at an edge computing device, data for a mobile device in a first small cell; and Distributing, at the edge computing device, processing of the received data between computing resources of the mobile device and computing resources of the edge computing device based at least in part on a processing capability and a processing availability of the mobile device, wherein the edge computing device is co-located with a first base station of the first small cell or a second base station of a neighboring second small cell that is in communication with the first small cell. Receiving, at an edge computing device, data for a mobile device in a first small cell; and Distributing, at the edge computing device, processing of the received data between computing resources of the mobile device and computing resources of the edge computing device based at least in part on a processing capability and a processing availability of the mobile device, wherein the edge computing device is co-located with a first base station of the first small cell or a second base station of a neighboring second small cell that is in communication with the first small cell.
A method of operating a content node to deliver content cached by the content node to at least an end user device, the method comprising: receiving, at the content node, at least one characteristic; configuring, at the content node, one or more transmission control protocol, TCP, parameters for communications with the end user device based on the at least one characteristic; and transferring, from the content node, the communications using the one or more TCP parameters for delivery to the end user device; characterised in that: the method further comprises requesting at least one characteristic of the end user device from a custom application on the end user device configured to identify the at least one characteristic and transfer the at least one characteristic to the content node; and the step of receiving comprises receiving the at least one characteristic from the custom application on the end user device in response to the step of requesting the at least one characteristic; in that: the at least one characteristic is a characteristic of an end user device and comprises memory capacity or available memory. receiving, at the content node, at least one characteristic; configuring, at the content node, one or more transmission control protocol, TCP, parameters for communications with the end user device based on the at least one characteristic; and transferring, from the content node, the communications using the one or more TCP parameters for delivery to the end user device; characterised in that: the method further comprises requesting at least one characteristic of the end user device from a custom application on the end user device configured to identify the at least one characteristic and transfer the at least one characteristic to the content node; and the step of receiving comprises receiving the at least one characteristic from the custom application on the end user device in response to the step of requesting the at least one characteristic; in that: the at least one characteristic is a characteristic of an end user device and comprises memory capacity or available memory. the method further comprises requesting at least one characteristic of the end user device from a custom application on the end user device configured to identify the at least one characteristic and transfer the at least one characteristic to the content node; and the step of receiving comprises receiving the at least one characteristic from the custom application on the end user device in response to the step of requesting the at least one characteristic; in that: the at least one characteristic is a characteristic of an end user device and comprises memory capacity or available memory.
Method for engraving an intaglio gravure printing plate with a laser, wherein a depth profile of the intaglio gravure printing plate is produced by engraving several engraving layers by means of the laser, wherein a target engraving layer is determined for each of the engraving layers on the basis of a predetermined target depth profile, characterized in that flank angles are determined for edges of the regions of the target engraving layers to be engraved, and for reducing the deviation of a target depth profile from the actually engraved depth profile, a correction offset is determined for each target engraving layer and each flank angle in said target engraving layer, in that the regions to be engraved of each target engraving layer are adapted at the edges by means of the respective correction offset in order to produce control engraving layers, and in that the control engraving layers are used to control the laser when engraving the engraving layers.
A device, comprising: an amplifier having a peaking path and a carrier path, the amplifier including a carrier amplifier configured to amplify a signal received from the carrier path and a peaking amplifier configured to amplify a signal received from the peaking path; a first variable attenuator connected to the peaking path, the first variable attenuator configured to attenuate a signal to be input into the peaking amplifier; a controller coupled to the first variable attenuator, the controller being configured to: determine a magnitude of an input signal to the amplifier, when the magnitude of the input signal is below a threshold, set an attenuation of the first variable attenuator to a first attenuation value, and when the magnitude of the input signal is above the threshold, transitioning the attenuation of the first variable attenuator to a second attenuation value through a non-zero number of attenuation values that fall between the first attenuation value and the second attenuation value, the second attenuation value being less than the first attenuation value. an amplifier having a peaking path and a carrier path, the amplifier including a carrier amplifier configured to amplify a signal received from the carrier path and a peaking amplifier configured to amplify a signal received from the peaking path; a first variable attenuator connected to the peaking path, the first variable attenuator configured to attenuate a signal to be input into the peaking amplifier; a controller coupled to the first variable attenuator, the controller being configured to: determine a magnitude of an input signal to the amplifier, when the magnitude of the input signal is below a threshold, set an attenuation of the first variable attenuator to a first attenuation value, and when the magnitude of the input signal is above the threshold, transitioning the attenuation of the first variable attenuator to a second attenuation value through a non-zero number of attenuation values that fall between the first attenuation value and the second attenuation value, the second attenuation value being less than the first attenuation value. determine a magnitude of an input signal to the amplifier, when the magnitude of the input signal is below a threshold, set an attenuation of the first variable attenuator to a first attenuation value, and when the magnitude of the input signal is above the threshold, transitioning the attenuation of the first variable attenuator to a second attenuation value through a non-zero number of attenuation values that fall between the first attenuation value and the second attenuation value, the second attenuation value being less than the first attenuation value.
A bag having a sack-shaped main body configured to receive objects therein, and a bag strap normally connected to the main body and used to hold the bag on a user's shoulder, waist or the like, wherein a first end of the bag strap is coupled to a first end of the main body, a wire of a predetermined length is connected to a second end of the bag strap, and the main body comprises adjusting means that adjusts the length of the wire by winding or unwinding, in the state where an end of the wire is fixed to the adjusting means.
An inspecting device which takes a semiconductor device or a photo device as an inspecting target, the device comprising: an irradiation part for irradiating said inspecting target with each of pulsed pump light and pulsed probe light having the same pulse period; a detection part for detecting an electromagnetic wave emitted from said inspecting target in accordance with the irradiation with said pulsed probe light; and a delay part for measurement for delaying the time of arrival of said pulsed probe light at said inspecting target relatively to said pulsed pump light, characterized in that said irradiation part is provided with a scanning mechanism to scan with said pulsed probe light a wide range which is wider than an irradiated range being irradiated with said pulsed pump light in said inspecting target, wherein said detection part is provided with a detector for receiving pulsed light for detection having the same pulse period as said pulsed probe light, to detect an electromagnetic wave generated in accordance with the irradiation with said pulsed probe light, and wherein said inspecting device further includes a delay part for detection for delaying the time of arrival of said pulsed light for detection at said detector relatively to the time of arrival of said electromagnetic wave at said detector. an irradiation part for irradiating said inspecting target with each of pulsed pump light and pulsed probe light having the same pulse period; a detection part for detecting an electromagnetic wave emitted from said inspecting target in accordance with the irradiation with said pulsed probe light; and a delay part for measurement for delaying the time of arrival of said pulsed probe light at said inspecting target relatively to said pulsed pump light, characterized in that said irradiation part is provided with a scanning mechanism to scan with said pulsed probe light a wide range which is wider than an irradiated range being irradiated with said pulsed pump light in said inspecting target, wherein said detection part is provided with a detector for receiving pulsed light for detection having the same pulse period as said pulsed probe light, to detect an electromagnetic wave generated in accordance with the irradiation with said pulsed probe light, and wherein said inspecting device further includes a delay part for detection for delaying the time of arrival of said pulsed light for detection at said detector relatively to the time of arrival of said electromagnetic wave at said detector.
A method for wireless communication, comprising: receiving, by a first user equipment, UE, a resource grant on a first carrier for a second carrier, the resource grant assigning resources for the second carrier; and communicating with a second UE via the second carrier using the granted resources, wherein the resource grant is received at an nth downlink subframe of the first carrier, characterized by: wherein the granted resources are valid for an nth + z offset + x offset subframe of the second carrier, wherein the z offset is associated with a resource grant offset, and wherein the x offset is associated with a timing offset between the first carrier and the second carrier. receiving, by a first user equipment, UE, a resource grant on a first carrier for a second carrier, the resource grant assigning resources for the second carrier; and communicating with a second UE via the second carrier using the granted resources, wherein the resource grant is received at an nth downlink subframe of the first carrier, characterized by: wherein the granted resources are valid for an nth + z offset + x offset subframe of the second carrier, wherein the z offset is associated with a resource grant offset, and wherein the x offset is associated with a timing offset between the first carrier and the second carrier. wherein the granted resources are valid for an nth + z offset + x offset subframe of the second carrier, wherein the z offset is associated with a resource grant offset, and wherein the x offset is associated with a timing offset between the first carrier and the second carrier.
Arc treatment device comprising a. An arc detection device arranged to detect an arc being present in a plasma chamber; b. An arc energy determination device arranged to determine an arc energy value, which is a value corresponding to the energy supplied to the plasma chamber while the arc is present in the plasma chamber; c. A break time determination device arranged to determine a break time from the determined arc energy value. a. An arc detection device arranged to detect an arc being present in a plasma chamber; b. An arc energy determination device arranged to determine an arc energy value, which is a value corresponding to the energy supplied to the plasma chamber while the arc is present in the plasma chamber; c. A break time determination device arranged to determine a break time from the determined arc energy value.
Inertial drive, comprising a variable-length, in particular piezoelectric actuator element, comprising a frame element with a support section, on the support surface of which a first end section of the actuator element is supported, and with a deformation section, against the abutment surface of which a second end section of the actuator element bears, said second end section being situated opposite the first end section of the actuator element, wherein the deformation section has a joint section, and comprising a flat, preferably planar spring element which is arranged on the deformation section of the frame element and which has a friction section on its free end, and comprising a friction body for being driven, which friction body is in direct or indirect mechanical contact with the friction section, wherein a variation in length of the actuator element gives rise to a rotational movement of the deformation section about the joint section, which rotational movement is transmitted via the spring element to the friction section for the purposes of driving the friction body for being driven, wherein the friction section is arranged spaced apart from the abutment surface in a direction pointing away from the abutment surface.
Spectrometer, comprising a housing, at least one radiation source, at least one radiation detector, an autonomous energy supply unit and an interface for wireless data transmission; wherein the housing encloses the at least one radiation source, the at least one radiation detector and the autonomous energy supply unit and the spectrometer is designed (a) to evaluate data obtained from the radiation detector in an internal evaluation unit and/or an external evaluation unit; and (b) to communicate wirelessly, directly or indirectly, with at least one household appliance wherein the at least one household appliance is a water-conducting household appliance for cleaning and/or drying articles, the housing can be used in the drum of the water-conducting household appliance and has the most regular surface possible in order to be able to follow movement in the drum of the water-conducting household appliance, comprising a round shape such as a sphere and another ellipsoid, a regular polyhedron, as well as hybrids of round shapes and regular polyhedra, and the housing has at least one opening to a cavity in the housing, the at least one opening allows a substance exchange with the environment of the spectrometer, and the radiation source and the radiation detector is arranged so that a measurement object present in the cavity can be examined using the spectrometer in a reflection mode and/or in a transmission mode. (a) to evaluate data obtained from the radiation detector in an internal evaluation unit and/or an external evaluation unit; and (b) to communicate wirelessly, directly or indirectly, with at least one household appliance
A method for treating a subterranean formation, comprising: measuring mechanical properties of a formation comprising Young's modulus, Poisson's ratio, and in-situ stress; determining a target zone based on the mechanical properties; estimating number and location of hydraulic fractures based on the determining; identifying stages based on the estimating; and performing hydraulic fracturing treatments in the stages. measuring mechanical properties of a formation comprising Young's modulus, Poisson's ratio, and in-situ stress; determining a target zone based on the mechanical properties; estimating number and location of hydraulic fractures based on the determining; identifying stages based on the estimating; and performing hydraulic fracturing treatments in the stages.