mhurhangee/ep-ind-claims huggingface dataset:
A bone tethering screw system comprising: a bone screw having a threaded shank and a head portion, the head portion including inner walls defining a slot and a recess distal of the slot; an elongate fastening member configured to be received in the recess of the head portion of the bone screw; and a securing member having an engaging portion and a set screw rotatably coupled with the engaging portion, the engaging portion configured to secure the elongate fastening member in the recess of the head portion of the bone screw, the set screw configured to threadably engage the inner walls of the head portion of bone screw, wherein when the set screw threadably engages the inner walls of the head portion of the bone screw, the engaging portion advances relative to the fastening member to secure the fastening member in the recess of the head portion; characterized in that the engaging portion of the securing member defines a bore configured to receive a portion of the set screw, and comprises pins, and the set screw defines a post configured to be rotatably received in the bore of the engaging portion of the securing member, the post including a flange configured to engage the pins of the engaging portion to inhibit relative axial displacement between the set screw and the engaging portion. a bone screw having a threaded shank and a head portion, the head portion including inner walls defining a slot and a recess distal of the slot; an elongate fastening member configured to be received in the recess of the head portion of the bone screw; and a securing member having an engaging portion and a set screw rotatably coupled with the engaging portion, the engaging portion configured to secure the elongate fastening member in the recess of the head portion of the bone screw, the set screw configured to threadably engage the inner walls of the head portion of bone screw, wherein when the set screw threadably engages the inner walls of the head portion of the bone screw, the engaging portion advances relative to the fastening member to secure the fastening member in the recess of the head portion; characterized in that the engaging portion of the securing member defines a bore configured to receive a portion of the set screw, and comprises pins, and the set screw defines a post configured to be rotatably received in the bore of the engaging portion of the securing member, the post including a flange configured to engage the pins of the engaging portion to inhibit relative axial displacement between the set screw and the engaging portion.
A display device, comprising: a base substrate, an insulation layer disposed on the base substrate, an organic light emitting component disposed on the insulation layer, and an encapsulation layer configured for sealing the organic light emitting component, wherein the insulation layer comprises an encapsulation region, the insulation layer and the encapsulation layer are in contact with each other in the encapsulation region, and at least one cutting groove is formed in a contact region; wherein the insulation layer further comprises a cutting region, the encapsulation region surrounds a periphery of the organic light emitting component, the cutting region surrounds a periphery of the encapsulation region; wherein the cutting region comprises at least one first cutting groove whose depth is same as a thickness of the insulation layer, and the encapsulation layer is extended into the cutting region; wherein the cutting region and the encapsulation layer are adjacent to each other; characterized in that the cutting region further comprises at least one second cutting groove whose depth is smaller than the thickness of the insulation layer, the at least one second cutting groove is disposed at a boundary between the encapsulation region and a cutting region of the insulation layer, and the encapsulation layer is extended laterally and is terminated in the at least one second cutting groove. a base substrate, an insulation layer disposed on the base substrate, an organic light emitting component disposed on the insulation layer, and an encapsulation layer configured for sealing the organic light emitting component, wherein the insulation layer comprises an encapsulation region, the insulation layer and the encapsulation layer are in contact with each other in the encapsulation region, and at least one cutting groove is formed in a contact region; wherein the insulation layer further comprises a cutting region, the encapsulation region surrounds a periphery of the organic light emitting component, the cutting region surrounds a periphery of the encapsulation region; wherein the cutting region comprises at least one first cutting groove whose depth is same as a thickness of the insulation layer, and the encapsulation layer is extended into the cutting region; wherein the cutting region and the encapsulation layer are adjacent to each other; characterized in that the cutting region further comprises at least one second cutting groove whose depth is smaller than the thickness of the insulation layer, the at least one second cutting groove is disposed at a boundary between the encapsulation region and a cutting region of the insulation layer, and the encapsulation layer is extended laterally and is terminated in the at least one second cutting groove.
Method for using a geometrical probe with a spindle of a machine tool, wherein - in a probe fetch waiting state of the machine tool, at least one temperature parameter related to a temperature of the spindle of the machine tool is determined by measuring at least one temperature value for the spindle, and - a time for fetching the geometrical probe is determined depending on the at least one temperature parameter. - in a probe fetch waiting state of the machine tool, at least one temperature parameter related to a temperature of the spindle of the machine tool is determined by measuring at least one temperature value for the spindle, and - a time for fetching the geometrical probe is determined depending on the at least one temperature parameter.
A method comprising: receiving, at a user equipment, a connection reconfiguration message for a handover to dual connectivity from a source node connected with the user equipment, the connection reconfiguration message comprising a first configuration about a target master node and a second configuration about a target secondary node; performing, in parallel, first random access to the target master node based on the first configuration and second random access to the target secondary node based on the second configuration, to connect to the target master node and the target secondary node; in response to failure of the first random access and success of the second random access, reconnecting to the target master node based on the first configuration while keeping connected to the target secondary node; determining whether the reconnection to the target master node fails; and in accordance with a determination that the reconnection to the target master node fails, reconnecting to the source node or connecting to another target node discovered in cell selection initiated by the user equipment. receiving, at a user equipment, a connection reconfiguration message for a handover to dual connectivity from a source node connected with the user equipment, the connection reconfiguration message comprising a first configuration about a target master node and a second configuration about a target secondary node; performing, in parallel, first random access to the target master node based on the first configuration and second random access to the target secondary node based on the second configuration, to connect to the target master node and the target secondary node; in response to failure of the first random access and success of the second random access, reconnecting to the target master node based on the first configuration while keeping connected to the target secondary node; determining whether the reconnection to the target master node fails; and in accordance with a determination that the reconnection to the target master node fails, reconnecting to the source node or connecting to another target node discovered in cell selection initiated by the user equipment.
A gas analyzing method for measuring hydrogen fluoride in a sample containing a corrosive gas and water with a Fourier transform infrared spectrophotometer, wherein the Fourier transform infrared spectrophotometer comprises a detector having an InGaAs detection element and a single-path gas cell having an optical path length of 0.01 m to 2 m, a cell window is made of a corrosion-resistant material, a measurement region ranges from 3800 to 14300 cm -1 in wavenumber, and a concentration of hydrogen fluoride is quantified based on an amount of absorption of light having a predetermined wavenumber by the sample and a calibration curve. the Fourier transform infrared spectrophotometer comprises a detector having an InGaAs detection element and a single-path gas cell having an optical path length of 0.01 m to 2 m, a cell window is made of a corrosion-resistant material, a measurement region ranges from 3800 to 14300 cm -1 in wavenumber, and a concentration of hydrogen fluoride is quantified based on an amount of absorption of light having a predetermined wavenumber by the sample and a calibration curve.
A polyacene compound having a structure represented by the chemical formula: wherein at least one of R 1, R 2, R 3 and R 4 in the chemical formula is/are an aliphatic hydrocarbon group (such as an alkyl group, alkenyl group or alkynyl group), aryl group, alkoxy group, aryloxy, group, acyl group, ester group, alkyloxycarbonyl group, aryloxycarbonyl group, carboxyl group, formyl group, hydroxyl group, halogen group, amino group, imino group, amide group, cyano group, silyl group, mercapto group, sulfide group, disulfide group or sulfonyl group, and the other(s) of R 1, R 2, R 3 and R 4 is/are each a hydrogen atom, two of Xs are each a halogen group bound to the same acene ring and the others of Xs are each a hydrogen atom, and k is an integer of 1 to 5. wherein at least one of R 1, R 2, R 3 and R 4 in the chemical formula is/are an aliphatic hydrocarbon group (such as an alkyl group, alkenyl group or alkynyl group), aryl group, alkoxy group, aryloxy, group, acyl group, ester group, alkyloxycarbonyl group, aryloxycarbonyl group, carboxyl group, formyl group, hydroxyl group, halogen group, amino group, imino group, amide group, cyano group, silyl group, mercapto group, sulfide group, disulfide group or sulfonyl group, and the other(s) of R 1, R 2, R 3 and R 4 is/are each a hydrogen atom, two of Xs are each a halogen group bound to the same acene ring and the others of Xs are each a hydrogen atom, and k is an integer of 1 to 5.
A hybrid permanent magnet machine comprising: a stator including armature windings; a rotor including permanent magnets and a main field winding; and a rechargeable energy source; characterized by an output voltage control circuit including an H bridge circuit configured to provide a control current magnitude and direction in the main field winding to control the current passing across the main field winding; wherein the control circuit is configured to monitor voltage output of the machine and control said H bridge upon said monitored voltage output, and control said H bridge in the same direction as a current across the main field winding if the monitored voltage is below a desired level, and in an opposed direction if the monitored voltage is above a desired level. a stator including armature windings; a rotor including permanent magnets and a main field winding; and a rechargeable energy source; characterized by an output voltage control circuit including an H bridge circuit configured to provide a control current magnitude and direction in the main field winding to control the current passing across the main field winding; wherein the control circuit is configured to monitor voltage output of the machine and control said H bridge upon said monitored voltage output, and control said H bridge in the same direction as a current across the main field winding if the monitored voltage is below a desired level, and in an opposed direction if the monitored voltage is above a desired level.
An exhaust air guide of a fuel cell stack, more especially for a motor vehicle, comprising a cooling device, belonging to the functional environment of the fuel cell stack, in the form of a cooler structure through which ambient air is passed, wherein the cooling device is designed to cool the fuel cell stack, wherein at least some of the exhaust air of the fuel cell stack is guided into the cooler structure or downstream of the cooler structure as considered in the throughflow direction of the ambient air through the cooler structure, in such a way that this exhaust air flow, at the cooler structure, causes an increase in the mass flow of the ambient air through the cooler structure in accordance with the jet pump principle, and wherein the exhaust air of the fuel cell stack is not guided before the aforesaid cooler structure in such a way that it flows through the cooler structure in the throughflow direction and in so doing entrains ambient air in accordance with the jet pump principle.
Rotational disinfectant device for capturing and disinfecting infectants, comprising viruses, such as SARS-CoV-2, and bacteria, from a gas, the device comprising means for transmitting the infectant-containing gas to a gas inlet of a housing, which housing is further provided with a gas outlet, a disinfectant liquid inlet and a disinfectant liquid outlet; a rotor mounted for rotation in said housing and connecting to the inlets and outlets, the rotor comprising a plurality of disinfecting channels extending axially and parallel to a common rotation axis, wherein the channels are circumferentially enclosed by walls over an, optionally entire, axial length of the rotor between the disinfectant liquid inlet and the disinfectant liquid outlet; and wherein the device further comprises means for rotating the rotor and means for providing a sustained flow of disinfectant liquid to the disinfectant liquid inlet, wherein the device further comprises - a disinfectant liquid collector that connects to the disinfectant liquid outlet, in which collector the collected disinfected particles settle to form a disinfected particle-rich bottom layer and a disinfected particle-poor top layer; - a return conduit that connects the disinfectant liquid collector outlet with the disinfectant liquid inlet, and a pump to transfer disinfectant liquid from the disinfected particle-poor top layer to the disinfectant liquid inlet through the return conduit for re-use; wherein the return conduit, the liquid collector outlet and the disinfectant liquid inlet form a closed fluid circuit, wherein the gas transmitting means are preferably located opposite to the gas inlet relative to the rotor, and wherein the gas transmitting means preferably comprise a propeller. - a disinfectant liquid collector that connects to the disinfectant liquid outlet, in which collector the collected disinfected particles settle to form a disinfected particle-rich bottom layer and a disinfected particle-poor top layer; - a return conduit that connects the disinfectant liquid collector outlet with the disinfectant liquid inlet, and a pump to transfer disinfectant liquid from the disinfected particle-poor top layer to the disinfectant liquid inlet through the return conduit for re-use; wherein the return conduit, the liquid collector outlet and the disinfectant liquid inlet form a closed fluid circuit, wherein the gas transmitting means are preferably located opposite to the gas inlet relative to the rotor, and wherein the gas transmitting means preferably comprise a propeller.
A photosensitizer for use in the prevention and/or treatment of viral respiratory infections caused by a coronavirus comprising applying the photosensitizer intra-nasally and/or intra-orally and/or pharyngeally and irradiating at least a part of the respiratory tract of a subject from outside of the subject with light comprising or having a wavelength selected from 500 nm to 820 nm of the electromagnetic spectrum, wherein the photosensitizer is a phenothiazine derivative having a structure of the following formula wherein D and D' each are an electron donor group, and wherein the positions C-1, C-2, C-4, C-6, C-8 and/or C-9 of the phenothiazine ring system may be substituted by a substituent preferably selected from substituted or unsubstituted lower alkyl, preferably C 1-3 -alkyl, particularly preferred methyl, or lower alkenyl, preferably C 2-3 -alkenyl, amino, halo, and cyano. Preferably, D and D' are each independently a NRR' group with R and R' being preferably independently selected from H, substituted or unsubstituted lower alkyl, preferably C 1-3 -alkyl, particularly preferred methyl, and lower alkenyl, preferably C 2-3 -alkenyl. wherein the photosensitizer is a phenothiazine derivative having a structure of the following formula wherein D and D' each are an electron donor group, and wherein the positions C-1, C-2, C-4, C-6, C-8 and/or C-9 of the phenothiazine ring system may be substituted by a substituent preferably selected from substituted or unsubstituted lower alkyl, preferably C 1-3 -alkyl, particularly preferred methyl, or lower alkenyl, preferably C 2-3 -alkenyl, amino, halo, and cyano. Preferably, D and D' are each independently a NRR' group with R and R' being preferably independently selected from H, substituted or unsubstituted lower alkyl, preferably C 1-3 -alkyl, particularly preferred methyl, and lower alkenyl, preferably C 2-3 -alkenyl.
A sliding door or sliding gate for the division or closure of various rooms, comprising the following features: 1.1 the sliding door or the sliding gate comprises a door leaf or a gate leaf, which is guided in a pivot joint such that said leaf performs a rotary movement when opening or closing the door or gate; 1.2 the pivot point of the pivot joint is stationary and determined such that pressure or wind forces acting on the door leaf or gate leaf will not result in forces in the movement direction of the door or of the gate but will be oriented perpendicularly thereto; 1.3 the door leaf or gate leaf is supported symmetrically to the pivot point such that a resulting force runs through the pivot point due to aerodynamic effects; 1.4 characterized in that the pivot point of the pivot joint is located outside the door leaf or the gate leaf in the proximity of the wall of the room. 1.1 the sliding door or the sliding gate comprises a door leaf or a gate leaf, which is guided in a pivot joint such that said leaf performs a rotary movement when opening or closing the door or gate; 1.2 the pivot point of the pivot joint is stationary and determined such that pressure or wind forces acting on the door leaf or gate leaf will not result in forces in the movement direction of the door or of the gate but will be oriented perpendicularly thereto; 1.3 the door leaf or gate leaf is supported symmetrically to the pivot point such that a resulting force runs through the pivot point due to aerodynamic effects; 1.4 characterized in that the pivot point of the pivot joint is located outside the door leaf or the gate leaf in the proximity of the wall of the room.
Apparatus for decoupling - a radio-frequency signal transmitted on a data transmission line, wherein the data transmission line has a first sub-line and a second sub-line, or for decoupling - interference voltages, characterised in that the apparatus comprises: - a tapping module, wherein in order to decouple the radio-frequency signal or the interference voltages, the tapping module is coupled to the first and second sub-lines (51, 52) at a first tapping location of the data transmission line; and - a current probe module, wherein - in the event of decoupling of the radio-frequency signal, the current probe module is coupled to the first sub-line at a second tapping location of the data transmission line, and - in the event of decoupling of the interference voltages, the current probe module is coupled to the first and second sub-lines (51, 52) at a second tapping location of the data transmission line; wherein the apparatus comprises an output, wherein the output can be adapted to different input impedances of a device connected to the output. - a radio-frequency signal transmitted on a data transmission line, wherein the data transmission line has a first sub-line and a second sub-line, or for decoupling - interference voltages, - a tapping module, wherein in order to decouple the radio-frequency signal or the interference voltages, the tapping module is coupled to the first and second sub-lines (51, 52) at a first tapping location of the data transmission line; and - a current probe module, wherein - in the event of decoupling of the radio-frequency signal, the current probe module is coupled to the first sub-line at a second tapping location of the data transmission line, and - in the event of decoupling of the interference voltages, the current probe module is coupled to the first and second sub-lines (51, 52) at a second tapping location of the data transmission line;
A method for wireless communication, said method being performed by a serving eNodeB and comprising: identifying, one or more non-serving eNodeBs that together with the serving eNodeB form a coordinated multipoint, CoMP, set; transmitting uplink configuration information to the one or more non-serving eNodeBs to facilitate coordinated uplink operation of the CoMP set, the uplink configuration information identifying a first set of resources allocated by the serving eNodeB for uplink transmissions of a second user equipment, which is user equipment associated to said serving eNodeB, wherein the uplink configuration information prohibits said one or more non-serving eNodeBs from scheduling uplink transmissions for first user equipment on resources that at least partially overlap with said first set of resources, wherein said first user equipment is user equipment associated with said one or more non-serving eNodeBs; and receiving information, from a particular one of the one or more non-serving eNodeBs having received uplink transmissions originating from said second user equipment, the uplink transmissions having been conducted in accordance with the uplink configuration information, wherein the received information comprises at least a portion of said received uplink transmissions. identifying, one or more non-serving eNodeBs that together with the serving eNodeB form a coordinated multipoint, CoMP, set; transmitting uplink configuration information to the one or more non-serving eNodeBs to facilitate coordinated uplink operation of the CoMP set, the uplink configuration information identifying a first set of resources allocated by the serving eNodeB for uplink transmissions of a second user equipment, which is user equipment associated to said serving eNodeB, wherein the uplink configuration information prohibits said one or more non-serving eNodeBs from scheduling uplink transmissions for first user equipment on resources that at least partially overlap with said first set of resources, wherein said first user equipment is user equipment associated with said one or more non-serving eNodeBs; and receiving information, from a particular one of the one or more non-serving eNodeBs having received uplink transmissions originating from said second user equipment, the uplink transmissions having been conducted in accordance with the uplink configuration information, wherein the received information comprises at least a portion of said received uplink transmissions.