mhurhangee/patent-ind-claim-en huggingface dataset:
An inkjet liquid discharging apparatus comprising: a liquid applying unit configured to apply a liquid to a substrate; and a temperature controlling member configured to heat or cool a conveyed substrate to which a liquid is applied so as to cause the substrate to be at a temperature of 100 degrees C or less, the conveyed substrate contacting an outer peripheral surface of the temperature controlling member , the temperature controlling member being a rotatable cylindrical member; characterized in that the inkjet liquid discharging apparatus further comprises: a plurality of dual inlet air units configured to draw air between the substrate and the temperature controlling members , each dual inlet air unit being provided upstream of the contact location in the conveying direction and downstream of the contact location in the conveying direction; and an attractive force-generating unit configured to generate an attractive force to draw air, wherein each of the plurality of inlet air units is connected to a pipe to allow air to flow into a given inlet air unit from among the inlet air units , each inlet air unit being configured to draw the air by the attractive force. a liquid applying unit configured to apply a liquid to a substrate; and a temperature controlling member configured to heat or cool a conveyed substrate to which a liquid is applied so as to cause the substrate to be at a temperature of 100 degrees C or less, the conveyed substrate contacting an outer peripheral surface of the temperature controlling member , the temperature controlling member being a rotatable cylindrical member; characterized in that the inkjet liquid discharging apparatus further comprises: a plurality of dual inlet air units configured to draw air between the substrate and the temperature controlling members , each dual inlet air unit being provided upstream of the contact location in the conveying direction and downstream of the contact location in the conveying direction; and an attractive force-generating unit configured to generate an attractive force to draw air, wherein each of the plurality of inlet air units is connected to a pipe to allow air to flow into a given inlet air unit from among the inlet air units , each inlet air unit being configured to draw the air by the attractive force. a plurality of dual inlet air units configured to draw air between the substrate and the temperature controlling members , each dual inlet air unit being provided upstream of the contact location in the conveying direction and downstream of the contact location in the conveying direction; and an attractive force-generating unit configured to generate an attractive force to draw air, wherein each of the plurality of inlet air units is connected to a pipe to allow air to flow into a given inlet air unit from among the inlet air units , each inlet air unit being configured to draw the air by the attractive force.
A method of configuring a secondary cell, SCell, implemented in a base station, eNB, in a mobile communication system, the method comprising: identifying a carrier aggregation, CA, operation mode based on condition of a primary cell, PCell, and the SCell; identifying an amount of traffic for a user equipment, UE; determining whether to add the SCell to the UE based on CA operation mode and the traffic amount for the UE; and transmitting an SCell addition request message to the UE according to the determination, wherein the condition of the PCell and the SCell comprises coverages of the PCell and the SCell and eletric fields of the PCell and the SCell. identifying a carrier aggregation, CA, operation mode based on condition of a primary cell, PCell, and the SCell; identifying an amount of traffic for a user equipment, UE; determining whether to add the SCell to the UE based on CA operation mode and the traffic amount for the UE; and transmitting an SCell addition request message to the UE according to the determination, wherein the condition of the PCell and the SCell comprises coverages of the PCell and the SCell and eletric fields of the PCell and the SCell.
Method for protecting an electronic arrangement comprising organic constituents that is arranged on a substrate, where a liner is applied to the electronic arrangement in such a way that the electronic arrangement is at least partly covered by the liner, and where the liner is bonded at least to a partial area on the substrate and/or on the electronic arrangement, the bond being brought about by means of at least one layer of an adhesive in an adhesive tape, characterized in that an adhesive is used which, shaped to a layer having a thickness of 50 μm, has a water vapour permeation rate of less than 50 g/m 2 d, as measured at 38°C and 90% relative atmospheric humidity in accordance with ASTM F-1249, the adhesive comprises a permeate content of less than 1000 ppm as determined in accordance with DIN 53715 after storage over 24 hours at 23°C and 50% relative atmospheric humidity, based on the relation of the total weight of permeate present to the adhesive weight, the permeate being water, and the adhesive comprises a getter material capable of sorbing water, the getter material being selected from calcium oxide, calcium sulfate, calcium chloride, and zeolites, and also from mixtures of two or more of the above substances, and the getter material being present in the adhesive at a fraction of not more than 2 wt% and at least 0.5 wt%, based in each case on the adhesive with the getter material. where a liner is applied to the electronic arrangement in such a way that the electronic arrangement is at least partly covered by the liner, and where the liner is bonded at least to a partial area on the substrate and/or on the electronic arrangement, the bond being brought about by means of at least one layer of an adhesive in an adhesive tape, characterized in that an adhesive is used which, shaped to a layer having a thickness of 50 μm, has a water vapour permeation rate of less than 50 g/m 2 d, as measured at 38°C and 90% relative atmospheric humidity in accordance with ASTM F-1249, the adhesive comprises a permeate content of less than 1000 ppm as determined in accordance with DIN 53715 after storage over 24 hours at 23°C and 50% relative atmospheric humidity, based on the relation of the total weight of permeate present to the adhesive weight, the permeate being water, and the adhesive comprises a getter material capable of sorbing water, the getter material being selected from calcium oxide, calcium sulfate, calcium chloride, and zeolites, and also from mixtures of two or more of the above substances, and the getter material being present in the adhesive at a fraction of not more than 2 wt% and at least 0.5 wt%, based in each case on the adhesive with the getter material.
A data processing method, wherein the method is performed by a host , the host and a storage system communicate with each other by using the Non-Volatile Memory express over Fabric, NVMeoF, protocol, the storage system comprises a plurality of control nodes and a logical disk , the host accesses the logical disk by using the plurality of control nodes , the method comprising: sending a state query command to each control node of the plurality of control nodes, wherein the state query command is used to instruct the respective control node to report the path state of the path corresponding to the respective control node; receiving the path state reported by the respective control node; if the received path state indicates that the logical disk comprises an access interval, sending an interval query command to the respective control node, wherein the interval query command is used to instruct the respective control node to report an access interval; receiving access interval information reported by the respective control node, wherein the access interval indicated by the access interval information is a contiguous or non-contiguous address space pre-allocated to the control node; and recording the mapping relationship between the respective control node and the access interval information. sending a state query command to each control node of the plurality of control nodes, wherein the state query command is used to instruct the respective control node to report the path state of the path corresponding to the respective control node; receiving the path state reported by the respective control node; if the received path state indicates that the logical disk comprises an access interval, sending an interval query command to the respective control node, wherein the interval query command is used to instruct the respective control node to report an access interval; receiving access interval information reported by the respective control node, wherein the access interval indicated by the access interval information is a contiguous or non-contiguous address space pre-allocated to the control node; and recording the mapping relationship between the respective control node and the access interval information.
Test system comprising a Vehicle Test Stand ; a motor vehicle located on the Vehicle Test Stand ; at least one signal unit provided in or on the Vehicle Test Stand and/or separately from the Vehicle Test Stand and the motor vehicle , with which at least one optical and/or acoustic and/or haptic signal can be output; at least one measuring device; and a Data Acquisition and/or Evaluation Unit having an evaluation module for the data acquired by the measuring device, the test system having at least one adjustment module for the at least one signal unit; characterized in that the test system is a test system for testing a vehicle driver-specific signal perception and reaction of a vehicle driver operating the motor vehicle ; the at least one measuring device is a measuring device for directly or indirectly detecting at least one reaction time of the vehicle driver to the at least one signal; and the adjustment module is coupled to the measuring device and the adjustment module has an iteration unit with which the output intensity and/or signal type of the at least one signal unit can be changed iteratively to reduce the reaction time of the vehicle driver. a Vehicle Test Stand ; a motor vehicle located on the Vehicle Test Stand ; at least one signal unit provided in or on the Vehicle Test Stand and/or separately from the Vehicle Test Stand and the motor vehicle , with which at least one optical and/or acoustic and/or haptic signal can be output; at least one measuring device; and a Data Acquisition and/or Evaluation Unit having an evaluation module for the data acquired by the measuring device, the test system having at least one adjustment module for the at least one signal unit; characterized in that the test system is a test system for testing a vehicle driver-specific signal perception and reaction of a vehicle driver operating the motor vehicle ; the at least one measuring device is a measuring device for directly or indirectly detecting at least one reaction time of the vehicle driver to the at least one signal; and the adjustment module is coupled to the measuring device and the adjustment module has an iteration unit with which the output intensity and/or signal type of the at least one signal unit can be changed iteratively to reduce the reaction time of the vehicle driver.
A method, comprising: producing a stream of photons via an X-ray generator ; passing a portion of the stream of photons through a direct channel that connects the X-ray generator to a reference detector ; identifying a high energy peak in a spectrum measured by the reference detector ; defining a subsequent output of the X-ray generator based upon an analysis of the high energy peak , wherein the analysis of the high energy peak comprises dividing the high energy peak into a plurality of windows; deriving a normalized difference between the plurality of windows of the high energy peak ; deriving a form factor (FF) of the high energy peak , wherein the form factor (FF) is derived according to: FF = LW − RW LW + RW where LW is a count of a left window of the plurality of windows and RW is a count of a right window of the plurality of windows; and characterized by adjusting the form factor (FF) based upon a current measured at a target of the X-ray system . producing a stream of photons via an X-ray generator ; passing a portion of the stream of photons through a direct channel that connects the X-ray generator to a reference detector ; identifying a high energy peak in a spectrum measured by the reference detector ; defining a subsequent output of the X-ray generator based upon an analysis of the high energy peak , wherein the analysis of the high energy peak comprises dividing the high energy peak into a plurality of windows; deriving a normalized difference between the plurality of windows of the high energy peak ; deriving a form factor (FF) of the high energy peak , dividing the high energy peak into a plurality of windows; deriving a normalized difference between the plurality of windows of the high energy peak ; deriving a form factor (FF) of the high energy peak , wherein the form factor (FF) is derived according to: FF = LW − RW LW + RW where LW is a count of a left window of the plurality of windows and RW is a count of a right window of the plurality of windows; and characterized by adjusting the form factor (FF) based upon a current measured at a target of the X-ray system .
An apparatus, comprising a grow tower having a plurality of grow sites along at least one lateral face thereof, the grow tower having a track-contacting face, wherein the track-contacting face has a first cross-section profile; a track having an alignment feature extending along the track and having a second cross-section profile that is configured to engage the first cross-section profile of the track-contacting face; and one or more engagement actuators disposed to releasably press the grow tower against the track to register the grow tower against the alignment feature . a grow tower having a plurality of grow sites along at least one lateral face thereof, the grow tower having a track-contacting face, wherein the track-contacting face has a first cross-section profile; a track having an alignment feature extending along the track and having a second cross-section profile that is configured to engage the first cross-section profile of the track-contacting face; and one or more engagement actuators disposed to releasably press the grow tower against the track to register the grow tower against the alignment feature .
A pharmaceutical composition for use in reducing hepatotoxicity caused by acetaminophen (APAP) comprising: (a) a pharmaceutically effective dose of APAP or pro-drug analogs of the analgesic APAP, and (b) mannitol.
A method for scanning a sample , in which at least two illumination points are generated to form a point pattern , wherein the point pattern has an adjustable number of illumination points , wherein a distance, defined in scan lines , between the illumination points of the point pattern and/or a number of groups of illumination points of the point pattern is preset or set as at least one freely selectable parameter for defining the point pattern , wherein the point pattern , defined by the freely selectable parameter, for scanning at least one predetermined area of the sample is moved along a first direction to generate scan lines , associated with the illumination points of the point pattern , and along a second direction to generate scan lines , respectively subsequently generated scan lines , wherein a distance, defined in scan lines , between the illumination points of the point pattern is at least two scan lines, and wherein the illumination points of the point pattern are arranged on a line along the second direction, characterized in that the movement of the point pattern in the direction of the second direction during a scan pass takes place in equally sized scan steps or at a constant speed, and a length of the predetermined area along the second direction is at least a factor of 2 greater than a length of the point pattern along the second direction. in which at least two illumination points are generated to form a point pattern , wherein the point pattern has an adjustable number of illumination points , wherein a distance, defined in scan lines , between the illumination points of the point pattern and/or a number of groups of illumination points of the point pattern is preset or set as at least one freely selectable parameter for defining the point pattern , wherein the point pattern , defined by the freely selectable parameter, for scanning at least one predetermined area of the sample is moved along a first direction to generate scan lines , associated with the illumination points of the point pattern , and along a second direction to generate scan lines , respectively subsequently generated scan lines , wherein a distance, defined in scan lines , between the illumination points of the point pattern is at least two scan lines, and wherein the illumination points of the point pattern are arranged on a line along the second direction, characterized in that the movement of the point pattern in the direction of the second direction during a scan pass takes place in equally sized scan steps or at a constant speed, and a length of the predetermined area along the second direction is at least a factor of 2 greater than a length of the point pattern along the second direction.
Catching device for collecting cleaning liquid occurring during the cleaning of facades, with a flexible collecting mat , one longitudinal edge of which is bent or bendable up for contact with a facade (W) and the other longitudinal edge of which is bent or bendable up to form a guide surface for cleaning liquid, characterized in that it has a pulling device by which an inwardly directed pulling force (F) can be exerted on the guide surface in order to bend it open while forming a channel between the longitudinal edges , wherein one end of the pulling device is detachably connected or firmly attached to the guide surface and the other end remote therefrom to a central part of the collecting mat.
A coherent single photon source with wavelength λ, comprising an elongated, semiconductor photonic nanostructure , a quantum dot configured to be self assembled, said quantum dot positioned inside the photonic nanostructure, and an elongated clamp formed in a material that is transparent, wherein the clamp is mechanically connected to the length of the photonic nanostructure and has a stiffness and a size sufficient to suppress low frequency vibrations in a combined structure of the clamp and the nanostructure, and wherein the clamp at least partly surrounds the photonic nanostructure in transverse directions, the single photon source further being characterized in that - the photonic nanostructure has a cross-sectional area smaller than 2 μm 2 ; - the clamp material has a refractive index smaller than 2 at the wavelength λ; - the frequency range of the low-frequency vibrations is given by ω ≤ 10 GHz; and - the photonic nanostructure is embedded in the clamp in transverse directions. - the photonic nanostructure has a cross-sectional area smaller than 2 μm 2 ; - the clamp material has a refractive index smaller than 2 at the wavelength λ; - the frequency range of the low-frequency vibrations is given by ω ≤ 10 GHz; and - the photonic nanostructure is embedded in the clamp in transverse directions.
Method for operating a hand-held power tool that has at least one acceleration sensor , wherein the hand-held power tool is monitored for defects, having the following step: - sensing vibrations of the hand-held power tool by the acceleration sensor , characterized in that the method has the following steps: - comparing the sensed vibrations with previously stored reference vibrations, wherein the stored reference vibrations are dependent on a desired output, in particular a desired rotational speed and/or a desired torque, of the hand-held power tool and a reference vibration characteristic curve or a reference vibration characteristic map is available for comparison with the sensed vibrations, - identifying a defect of the hand-held power tool if the sensed vibrations deviate from the reference vibrations beyond a predefinable extent, and - influencing the operating behaviour of the hand-held power tool if a defect has been sensed. - sensing vibrations of the hand-held power tool by the acceleration sensor , - comparing the sensed vibrations with previously stored reference vibrations, wherein the stored reference vibrations are dependent on a desired output, in particular a desired rotational speed and/or a desired torque, of the hand-held power tool and a reference vibration characteristic curve or a reference vibration characteristic map is available for comparison with the sensed vibrations, - identifying a defect of the hand-held power tool if the sensed vibrations deviate from the reference vibrations beyond a predefinable extent, and - influencing the operating behaviour of the hand-held power tool if a defect has been sensed.
The compound 1-(2,6-Bis-methylamino-8-propylamino-pyrimido[5,4-d]pyrimidin-4-yl amino)-2-methyl-propan-2-ol or a salt or solvate thereof or at least one crystalline salt of 1-(2,6-Bis-methylamino-8-propylamino-pyrimido[5,4-d]pyrimidin-4-yl amino)-2-methyl-propan-2-ol selected from the group consisting of: (i) Crystalline hydrochloride salt ; (ii) Crystalline bis-hydrochloride salt ; (iii) Crystalline hydrogen malonate salt ; (iv) Crystalline hydrogen maleinate salt Form Male-A ( 31d-1 ); (v) Crystalline hydrogen maleinate salt Form Male-B ( 31d-2 ); (vi) Crystalline hydrogen fumarate salt ; (vii) Crystalline hydrogen L(+)tartrate salt ; (viii) Crystalline D,L-mandelate salt ; (ix) Crystalline tosylate salt form Tos-A ( 31h-1 ); (x) Crystalline tosylate salt form Tos-B ( 31h-2 ); (xi) Crystalline mesylate salt ; (xii) Crystalline saccharinate salt ; and any mixtures thereof. (i) Crystalline hydrochloride salt ; (ii) Crystalline bis-hydrochloride salt ; (iii) Crystalline hydrogen malonate salt ; (iv) Crystalline hydrogen maleinate salt Form Male-A ( 31d-1 ); (v) Crystalline hydrogen maleinate salt Form Male-B ( 31d-2 ); (vi) Crystalline hydrogen fumarate salt ; (vii) Crystalline hydrogen L(+)tartrate salt ; (viii) Crystalline D,L-mandelate salt ; (ix) Crystalline tosylate salt form Tos-A ( 31h-1 ); (x) Crystalline tosylate salt form Tos-B ( 31h-2 ); (xi) Crystalline mesylate salt ; (xii) Crystalline saccharinate salt ;
A composition comprising nanoparticles, wherein the nanoparticles comprise a hydrophobic taxane derivative coated with albumin, wherein at least about 5% of the albumin in the nanoparticle portion of the composition is crosslinked, and wherein the hydrophobic taxane derivative is of the formula: or a pharmaceutically acceptable salt, isomer, or solvate thereof.
A compound of formula (I): wherein: - X is an oxygen atom or a sulfur atom; and - R 1 represents a monosaccharide, a disaccharide, a thiodisaccharide, a trisaccharide or a thiotrisaccharide, each saccharide unit corresponding to any hexose and/or any pentose. - X is an oxygen atom or a sulfur atom; and - R 1 represents a monosaccharide, a disaccharide, a thiodisaccharide, a trisaccharide or a thiotrisaccharide, each saccharide unit corresponding to any hexose and/or any pentose.